Attachment B
Faculty Senate Agenda
November 17, 2011
Scientifically
and mathematically literate individuals understand the characteristic features
of science and mathematics as forms of human knowledge and inquiry, and they
are aware of how science and mathematics shape their material, intellectual,
and cultural environments1.
Scientifically and mathematically literate individuals are willing to
engage in science- and math-related issues and ideas as reflective citizens and
they are able to draw evidence-based conclusions and make reasoned decisions
concerning science- and math-related issues in real-life contexts.
Scientific
and mathematical literacy includes both an individual’s knowledge of scientific
and mathematical concepts and principles as well as the use of that knowledge
to acquire new knowledge, to identify questions, and to explain scientific and
mathematical phenomena. Achieving
scientific and mathematical literacy is a life-long process that requires the
development of skills, confidence and the desire to apply what has been learned
to new areas and issues as they arise in the individual’s life.
1The definition
of scientific literacy is based on: PISA 2003 Assessment Framework -
Mathematics, Reading, Science and Problem Solving Knowledge and Skills
(Organization for Economic Co-operation and Development).
·
Students
will be able to explain and apply core ideas and models in a physical science,
citing critical observations, underlying assumptions and limitations.
·
Students
will be able to describe how scientists create explanations of natural
phenomena based on the systematic collection of empirical evidence subjected to
rigorous testing and/or experimentation.
·
Students
will be able to access and evaluate scientific information, including
interpreting tables, graphs and equations.
·
Students
will be able to recognize evidence-based conclusions and form reasoned opinions
about science-related matters of personal, public and ethical concern.
·
Students
will be able to explain and apply core ideas and models in a life science,
citing critical observations, underlying assumptions and limitations.
·
Students
will be able to describe how scientists create explanations of natural
phenomena based on the systematic collection of empirical evidence subjected to
rigorous testing and/or experimentation.
·
Students
will be able to access and evaluate scientific information, including
interpreting tables, graphs and equations.
·
Students
will be able to recognize evidence-based conclusions and form reasoned opinions
about science-related matters of personal, public and ethical concern.
·
Students
will be able to use their senses and scientific instruments to gather,
organize, and display empirical data.
·
Students
will be able to identify patterns in data and use these to hypothesize
underlying relationships.
·
Students
will be able to
explain and apply scientific techniques for coping with
complexity and variability in the natural world.
·
Students
will be able to solve problems by thinking logically, making conjectures, and
constructing valid mathematical arguments.
·
Students
will be able to make valid inferences from numerical, graphical and symbolic
information.
·
Students
will be able to apply mathematical reasoning to both abstract and applied
problems, and to both scientific and non-scientific problems.
Area B-5: Further
Studies
Students
will be able to do one or more of the following:
·
Cite
critical observations, underlying assumptions and limitations to explain and
apply important ideas and models in one or more of the following: physical
science, life science, mathematics or computer
science.
·
Recognize
evidence-based conclusions and form reasoned opinions about science-related
matters of personal, public and ethical concern.
·
Discuss
historical or philosophical perspectives pertaining to the practice of science
or mathematics.