INTRODUCTION:
SCIENTIFIC
LITERACY &
WHY IT MATTERS
 description and rationale for the
framework that forms the basis of the
instrument to assess scientific literacy –
the major domain for PISA
Programme for International Student
Assessment
 Scientific literacy matters at both the
national and international level as
humanity faces major challenges in
providing sufficient water and food,
controlling diseases, generating
sufficient energy and adapting to
climate change
 Becoming scientifically literate
embodies the idea that the purposes of
science education should be both
broad and applied. Thus, within this
framework, the concept of scientific
literacy refers both to a knowledge of
science and science-based
technology.
 Scientific literacy also requires not just
knowledge of the concepts and
theories of science but also a
knowledge of the common procedures
and practices associated with scientific
enquiry and how these enable science
to advance.
 Undoubtedly, many of the challenges
of the 21st century will require
innovative solutions that have a basis
in scientific thinking and scientific
discovery.
 For all of these reasons, scientific
literacy is perceived to be a key
competency and defined in terms of
the ability to use knowledge and
information interactively – that is ‘an
understanding of how it [a knowledge
of science] changes the way one can
interact with the world and how it can
be used to accomplish broader goals’
SCIENTIFIC LITERACY:
TOWARDS A DEFINITION
 Current thinking about the desired
outcomes of science education is
rooted strongly in a belief that an
understanding of science is so
important that it should be a feature of
every young person’s education.
 To understand and engage in critical
discussion about issues that involve
science and technology requires three
domain-specific competencies. The
first is the ability to provide explanatory
accounts of natural phenomena,
technical artefacts and technologies
and their implications for society.
 Such an ability requires a knowledge
of the major explanatory ideas of
science and the questions that frame
the practice and goals of science.
 The second is the competency to use
a knowledge and understanding of
scientific enquiry to: identify questions
that can be answered by scientific
enquiry; identify whether appropriate
procedures have been used; and
propose ways in which such questions
might possibly be addressed
 The third is the competency to
interpret and evaluate data and
evidence scientifically and evaluate
whether the conclusions are
warranted. Thus, scientific literacy in
PISA is defined by the three
competencies to:
 • Explain phenomena scientifically;
 • Evaluate and design scientific
enquiry; and
 • Interpret data and evidence
scientifically.
 All of these competencies require
knowledge. Explaining scientific and
technological phenomena, for instance,
demands a knowledge of the content of
science – referred to hereinafter as
content knowledge. The second and
third competencies, however, require
more than a knowledge of what we
know. Rather, they depend on an
understanding of how scientific
knowledge is established and the
 People need all three forms of
scientific knowledge to perform the
three competencies of scientific
literacy. Therefore PISA will focus on
assessing the extent to which 15-year-
olds are capable of displaying these
competencies appropriately within in a
range of personal, local, national and
global contexts. This perspective differs
from that of many school science
programmes which are often dominated
by content knowledge.
 The competency-based perspective
also recognises that there is an
affective element to a student’s display
of these competencies – that is that
their attitudes or disposition towards
science will determine their level of
interest, sustain their engagement, and
may motivate them to take action
The Definition of Scientific
Literacy
 Scientific Literacy is the ability to
engage with science-related issues,
and with the ideas of science, as a
reflective citizen.
A scientifically literate person, therefore, is
willing to engage in reasoned discourse about
sciencand technology which requires the
competencies to:
1. Explain phenomena scientifically:
• Recognise, offer and evaluate explanations
for a range of natural and technologic
phenomena.
 2. Evaluate and design scientific enquiry:
 • Describe and appraise scientific
investigations and propose ways of
addressing question scientifically.
 3. Interpret data and evidence
scientifically:
 • Analyse and evaluate data, claims
and arguments in a variety of
representations and draw appropriate
scientific conclusions.
Explanatory Notes
 The following remarks are offered to
clarify the meaning and use of this
definition of scientific literacy for the
purposes of the PISA assessment.
 a) The term “scientific literacy” rather
than “science” underscores the
importance that the PISA science
assessment places on the application
of scientific knowledge in the context
of life situations.
 b) For the purposes of the PISA
assessment, it should be noted that
these competencies will only be tested
using the knowledge that 15-year-old
students can reasonably be expected
to have of the concepts and ideas of
science (content knowledge), the
procedures and strategies used in all
forms of scientific enquiry (procedural
knowledge), and the manner in which
ideas are justified and warranted in
science (epistemic knowledge).
 c) Finally, throughout this document,
the term ‘natural world’ is used to refer
to phenomena associated with any
object or phenomenon occurring in the
living or the material world.
Knowledge
PISA  Science Framework
PISA  Science Framework
PISA  Science Framework
PISA  Science Framework
PISA  Science Framework

PISA Science Framework

  • 1.
  • 2.
     description andrationale for the framework that forms the basis of the instrument to assess scientific literacy – the major domain for PISA Programme for International Student Assessment
  • 3.
     Scientific literacymatters at both the national and international level as humanity faces major challenges in providing sufficient water and food, controlling diseases, generating sufficient energy and adapting to climate change
  • 4.
     Becoming scientificallyliterate embodies the idea that the purposes of science education should be both broad and applied. Thus, within this framework, the concept of scientific literacy refers both to a knowledge of science and science-based technology.
  • 5.
     Scientific literacyalso requires not just knowledge of the concepts and theories of science but also a knowledge of the common procedures and practices associated with scientific enquiry and how these enable science to advance.
  • 6.
     Undoubtedly, manyof the challenges of the 21st century will require innovative solutions that have a basis in scientific thinking and scientific discovery.
  • 7.
     For allof these reasons, scientific literacy is perceived to be a key competency and defined in terms of the ability to use knowledge and information interactively – that is ‘an understanding of how it [a knowledge of science] changes the way one can interact with the world and how it can be used to accomplish broader goals’
  • 8.
    SCIENTIFIC LITERACY: TOWARDS ADEFINITION  Current thinking about the desired outcomes of science education is rooted strongly in a belief that an understanding of science is so important that it should be a feature of every young person’s education.
  • 9.
     To understandand engage in critical discussion about issues that involve science and technology requires three domain-specific competencies. The first is the ability to provide explanatory accounts of natural phenomena, technical artefacts and technologies and their implications for society.
  • 10.
     Such anability requires a knowledge of the major explanatory ideas of science and the questions that frame the practice and goals of science.
  • 11.
     The secondis the competency to use a knowledge and understanding of scientific enquiry to: identify questions that can be answered by scientific enquiry; identify whether appropriate procedures have been used; and propose ways in which such questions might possibly be addressed
  • 12.
     The thirdis the competency to interpret and evaluate data and evidence scientifically and evaluate whether the conclusions are warranted. Thus, scientific literacy in PISA is defined by the three competencies to:  • Explain phenomena scientifically;  • Evaluate and design scientific enquiry; and  • Interpret data and evidence scientifically.
  • 13.
     All ofthese competencies require knowledge. Explaining scientific and technological phenomena, for instance, demands a knowledge of the content of science – referred to hereinafter as content knowledge. The second and third competencies, however, require more than a knowledge of what we know. Rather, they depend on an understanding of how scientific knowledge is established and the
  • 14.
     People needall three forms of scientific knowledge to perform the three competencies of scientific literacy. Therefore PISA will focus on assessing the extent to which 15-year- olds are capable of displaying these competencies appropriately within in a range of personal, local, national and global contexts. This perspective differs from that of many school science programmes which are often dominated by content knowledge.
  • 15.
     The competency-basedperspective also recognises that there is an affective element to a student’s display of these competencies – that is that their attitudes or disposition towards science will determine their level of interest, sustain their engagement, and may motivate them to take action
  • 16.
    The Definition ofScientific Literacy  Scientific Literacy is the ability to engage with science-related issues, and with the ideas of science, as a reflective citizen.
  • 17.
    A scientifically literateperson, therefore, is willing to engage in reasoned discourse about sciencand technology which requires the competencies to: 1. Explain phenomena scientifically: • Recognise, offer and evaluate explanations for a range of natural and technologic phenomena.  2. Evaluate and design scientific enquiry:  • Describe and appraise scientific investigations and propose ways of addressing question scientifically.
  • 18.
     3. Interpretdata and evidence scientifically:  • Analyse and evaluate data, claims and arguments in a variety of representations and draw appropriate scientific conclusions.
  • 19.
    Explanatory Notes  Thefollowing remarks are offered to clarify the meaning and use of this definition of scientific literacy for the purposes of the PISA assessment.  a) The term “scientific literacy” rather than “science” underscores the importance that the PISA science assessment places on the application of scientific knowledge in the context of life situations.
  • 20.
     b) Forthe purposes of the PISA assessment, it should be noted that these competencies will only be tested using the knowledge that 15-year-old students can reasonably be expected to have of the concepts and ideas of science (content knowledge), the procedures and strategies used in all forms of scientific enquiry (procedural knowledge), and the manner in which ideas are justified and warranted in science (epistemic knowledge).
  • 21.
     c) Finally,throughout this document, the term ‘natural world’ is used to refer to phenomena associated with any object or phenomenon occurring in the living or the material world.
  • 28.