Index to changes in August 2006 resubmission
Standards addressed: 2.0, 4.0, 6.0, 8.0, and 9.0
Standards for the Preparation of Teachers

Adopted by the
Standards for
the Preparation of Teachers of Earth/Space Science
(DH
Endorsement)
Preface
Over the last several years, a referent group of professional educators developed a proposal to adopt standards for the preparation of earth/space science teachers. These standards align with standards developed by the National Science Teachers Association and the Michigan Curriculum Framework for science education. Teachers who receive the endorsement in earth/space science would be prepared to teach any earth/space course at their certificate level.
To provide information and gather feedback on the proposal,
a copy was also forwarded to selected groups/organizations, all
State Board adoption of these standards typically leads to the creation of a new certification test for teachers prepared to teach this content area. Test development for a new Michigan Test for Teacher Certification in earth/space science will be scheduled according to the recommendation of the Standing Technical Advisory Council.
Teacher preparation institutions that wish to continue to
offer programs to prepare earth/space science teachers are required to submit
an application for program approval that demonstrates how the new standards are
met throughout the proposed curriculum.
The programs must be
re-approved to show compliance with the new standards. Following initial approval, the teacher
preparation programs will be reviewed every five years through the Periodic
Review/Program Evaluation process.
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College/University |
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Code |
DH |
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Source of Guidelines/Standards |
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Program/Subject Area
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Earth/Space Science |
Levels of proficiency
are identified as follows:
A – Awareness
The earth/space science teacher recognizes/recalls the existence of different aspects of earth/space science and related teaching strategies.
B – Basic
Understanding
The earth/space science teacher articulates knowledge about earth/space science and related instructional and assessment strategies. The earth/space science teacher demonstrates proficiency in using the knowledge at a fundamental level of competence acceptable for teaching.
C –
Comprehensive Understanding
The earth/space science teacher is able to apply broad, in-depth knowledge of the different aspects of earth/space science in a variety of settings. (This level is not intended to reflect mastery; all teachers are expected to be lifelong learners.)
DIRECTIONS: List required courses on matrix and provide additional narrative to explain how standards are met. If electives are included, they should be clearly indicated. Adjust size of cells as needed.
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Narrative Explaining how
Required Courses and/or Experiences |
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Standard/Guideline |
Secondary Minor |
Secondary Major |
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Submit a narrative that
explains how this program: |
The Earth/space science majors and minors described in this application are closely and appropriately aligned to the content standards and benchmarks defined by the State Board of Education for the preparation of Earth/space science teachers. The Michigan Curriculum Framework standards are used as a basis for instructional curriculum by our candidates. Earth/space science is linked to all other science concepts including biology, chemistry, and physics, as frequently described in each of our courses. In seeking relevant and interesting examples we often turn to applications of principles from every science discipline. Our secondary science methods course (TE443) is the capstone course in the preparation of science educators, and many of the key integrative and curriculum based standards find their place in our curriculum through this course . |
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A. |
uses the Michigan Curriculum Framework K-12 Science Content Standards and Benchmarks as the critical foundation for teacher preparation, ensuring that earth/space science teachers have the content knowledge and the ability to teach this curriculum; and |
TE443 |
TE443 |
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B. |
TE443 |
TE443 |
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Level of |
Narrative Explaining how
Required Courses and/or Experiences |
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No. |
Standard/Guideline |
Proficiency |
Secondary Minor |
Secondary Major |
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The preparation of earth/space science teachers will enable them to: |
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1.0 |
understand earth/space science as the study of the earth and its processes and of the interaction between the lithosphere, atmosphere, hydrosphere, and biosphere and the relationship of the earth to the rest of the universe, which shall include such topics as the following: |
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| 1.1 | Physical Geology | The major concepts of historical geology are taught through the full-year general integrated physical and historical geology course (GE 121-GE 122, 8 semester credits total) and it’s associated required laboratory (2 hours per week). These courses are the foundation for the program, serving as prerequisite for all courses above the 100 level. Topics covered in these courses include plate tectonics; concepts associated with structural geology; map reading and interpretation; fossil identification; mineral formation and identification; sedimentary, igneous, and metamorphic rocks-their formation and classification; igneous intrusives and extrusives including volcanoes and tsunamis; weathering; surficial processes; depositional environments; the evolution of the Earth, principles and evidence for evolution of life. | |||
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1.1.1 |
earth and solar system |
B |
This standard is
addressed in both GE 121-122, Physical and Historical Geology I and II, and
NS 119, Descriptive Astronomy. |
This standard is
addressed in both GE 121-122, Physical and Historical Geology I and II, and
NS 119, Descriptive Astronomy. |
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1.1.2 |
minerals and rocks |
C |
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1.1.3 |
volcanic rocks and processes |
C |
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1.1.4 |
weathering and sedimentary rocks |
C |
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1.1.5 |
metamorphic rocks |
C |
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1.1.6 |
soil formation |
B |
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1.1.7 |
mass wasting |
C |
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1.1.8 |
geological time, relative and absolute dating |
C |
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1.1.9 |
hydrologic cycle |
C |
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1.1.10 |
groundwater |
C |
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1.1.11 |
glaciers/glaciation |
C |
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1.1.12 |
deserts/desertification |
B |
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1.1.13 |
crusted deformation |
C |
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1.1.14 |
earthquakes/mountain building |
C |
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1.1.15 |
folding |
C |
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1.1.16 |
plate tectonics/ocean floor |
C |
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1.1.17 |
mineral resources |
C |
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GE 223 w/ (objectives) GE 445 w/ (expanded objectives) |
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1.1.18 |
earth’s interior |
C |
GE 218 (218 objectives); GE 318 (318 objectives)
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1.1.19 |
planetary geology |
B |
; NS 119 |
; NS 119
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1.2 |
Historical Geology |
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1.2.1 |
history of geology |
B |
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1.2.2 |
depositional processes and sedimentary rocks |
C |
GE 121; GE 122 |
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1.2.3 |
fossils and fossil records through time |
C |
GE 121; GE 122 |
GE 121; GE 122; GE 445 (445 exp. objectives) |
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1.2.4 |
global tectonics through time |
C |
GE 121; GE 122 |
GE 218 (218 objectives); GE 318 (318 objectives)
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1.2.5 |
origin of the earth and Precambrian era |
C |
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1.2.6 |
Paleozoic era |
C |
GE 121; GE 122 |
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1.2.7 |
Mesozoic era |
C |
GE 121; GE 122 |
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1.2.8 |
Cenozoic era |
C |
GE 121; GE 122 |
GE 445 w/ (expanded objectives)
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1.3 |
Oceanography |
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1.3.1 |
origins of the continents, oceans, basins, and plate tectonics |
C |
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1.3.2 |
ocean basin physiography |
C |
NS 116 |
NS 116 |
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1.3.2.1 |
sea floor |
C |
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1.3.2.2 |
sediments |
C |
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1.3.2.3 |
explorations |
B |
NS 116 |
NS 116 |
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1.3.3 |
ocean chemistry |
C |
NS 116 |
NS 116 |
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1.3.4 |
ocean physics |
B |
GE 121; GE 122; NS 116 |
GE 121; GE 122; NS 116 |
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1.3.5 |
circulation |
B |
NS 116 |
NS 116 |
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1.3.6 |
climate change |
C |
GE 121; GE 122; NS 116 |
GE 121; GE 122; NS 116; GE 445 (445 exp. objectives) |
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1.3.7 |
ocean waves and beaches |
C |
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1.3.8 |
biological oceanography |
C |
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1.3.8.1 |
plankton and plants |
C |
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1.3.8.2 |
marine life |
C |
GE 121; GE 122; NS 116 |
GE 121; GE 122; NS 116 |
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1.3.8.3 |
resources |
C |
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1.4 |
Meteorology |
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1.4.1 |
weather |
C |
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1.4.2 |
climate |
C |
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1.4.3 |
atmospheric circulation |
C |
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1.5 |
Astronomy |
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1.5.1 |
celestial spheres and constellations |
C |
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1.5.2 |
seasons, solstices, equinoxes |
C |
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1.5.3 |
natural laws |
C |
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1.5.3.1 |
Copernicus |
C |
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1.5.3.2 |
Kepler |
C |
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1.5.3.3 |
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C |
NS 119 |
NS 119 |
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1.5.4 |
solar structure and energy |
C |
NS 119 |
NS 119 |
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1.5.4.1 |
fusion |
C |
NS 119 |
NS 119 |
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1.5.5 |
stars |
C |
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1.5.5.1 |
magnitudes and spectra |
C |
NS 119 |
NS 119 |
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1.5.5.2 |
binary stars and masses |
C |
NS 119 |
NS 119 |
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1.5.5.3 |
birth and death of stars |
C |
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1.5.5.4 |
white dwarfs and neutron stars |
C |
NS 119 |
NS 119 |
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1.5.5.5 |
novae and supernovae |
C |
NS 119 |
NS 119 |
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1.5.5.6 |
protostars and extra solar planets |
C |
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1.5.6 |
galaxy |
C |
NS 119 |
NS 119 |
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1.5.6.1 |
types and classification |
C |
NS 119 |
NS 119 |
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1.5.6.2 |
milky way |
C |
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1.5.6.3 |
active galaxies |
C |
NS 119 |
NS 119 |
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1.5.6.4 |
clusters and groups |
C |
NS 119 |
NS 119 |
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1.5.6.5 |
black holes |
C |
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1.5.6.6 |
dark matter/nature of |
C |
NS 119 |
NS 119 |
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1.5.6.7 |
big bang and fate of universe |
C |
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1.5.7 |
the solar system |
C |
NS 119 |
NS 119 |
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Narrative Explaining how
Required Courses and/or Experiences |
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No. |
Standard/Guideline |
Secondary Minor |
Secondary Major |
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The preparation of earth/space science teachers will enable them to: |
TE443, Secondary Science Methods includes an advanced field placement requirement, direct instruction in issues related to classroom and laboratory instruction at the secondary level, and to demonstrating the essential skills, dispositions and knowledge of a pre-service secondary science teacher. Through activities, demonstration lessons, field work in grade 7-12 classrooms and course assignments students provide evidence of their professional development and readiness to enter the classroom. Evaluation standards for TE443, and the entire professional education sequence, are based on the ELSMT standards. Assignments include aligning curriculum materials developed through the course to the Michigan Curriculum Framework. |
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apply mathematics, including statistics and precalculus, to investigations in the earth/space sciences and the analysis of data; |
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GE 218 (218 objectives); GE 318 (318 objectives)
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MA111 College Algebra
MA207 Principles of Statistics |
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| Effective with the fall of 2005, MA207 Statistics was a program requirement for all teacher candidates. This requirement is reflected in our Undergraduate Handbook, and stated as a requirement for graduation. In order to simplify this application, and to address the standard for individuals seeking to add the Earth/Space science endorsement, we will add MA207 Principles of Statistics to the program requirements (major/minor/endorsement) and reflect this change in the program narrative (2.b) and on Form XX. This change will increase the apparent program size by three semester credits. Similarly, the Earth/Space program requires MA111 College Algebra as a departmental degree requirement. We have added this to the major/minor endorsement requirements and reflected the change on Form XX. | |||
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3.0 |
relate the concepts of the earth/space sciences to contemporary, historical, technological, and societal issues; in particular, relate concepts of earth/space science to current controversies, such as those around the use of energy, exploitation of resources, and global change, as well as other issues; |
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locate resources, design and conduct inquiry-based open-ended investigations in the earth/space sciences, interpret findings, communicate results, and make judgments based on evidence; |
All courses with a GE prefix are inquiry- and project based. Lab and lecture activities require literature review, independent and group investigation in lab and often in field, interpretation, and verbal and written communication |
All courses with a GE prefix are inquiry- and project based. Lab and lecture activities require literature review, independent and group investigation in lab and often in field, interpretation, and verbal and written communication |
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Laboratory experiences, required in every course in
the program,
integrally incorporate learner investigations.
Laboratory experiences totaling over 330 hours are required in the major, and over 210 for the minor. During this time students gain invaluable
experience in the processes and procedures for implementing chemical based
investigations. Preparing teacher
candidates to lead inquiry-based open-ended investigations begins with training
university students in the concepts and skills of chemical analysis, and finds
its fruition in the classroom experiences of the field experience and the
discussions of TE443. While many
experiments assigned through the program are focused on specific learning
outcomes they might be considered to not be inquiry based. For example in Quantitative Analysis we teach
specific analytical techniques including applications of gravimetric and
volumetric analysis. The students then
use these techniques for the analysis of “real-world” samples,
the outcome of such analysis is open-ended as the students work to learn about
the purity or contamination levels of drinking water or river sediments. The teacher candidate applies these
principles in developing activities for their secondary classrooms. The institution has led EPA funded grants
with several local districts to assist the secondary students to become active
in water quality monitoring of local streams.
Through these collaborative projects our faculty, and
graduates-now-teachers, have worked to apply the techniques of the university
classroom to the real-world contexts of the secondary student’s world. TE443 discusses constructivist learning
theory and its application to the classroom as discussed in Chiappetta. See also our response to Standard 10.0. Chapter 9 Learning
in Middle Grades and Secondary Schools Introduction · Cognitive Approaches and Strategies for Teaching Science in a Constructivist Manner · Assessing and Reviewing · Resources to Examine · References
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5.0 |
construct new knowledge for themselves through research, reading and discussion, and reflect in an informed way on the role of science in human affairs; |
All courses with a GE prefix are inquiry- and project based. Lab and lecture activities require literature review, independent and group investigation in lab and often in field, interpretation, and verbal and written communication |
All courses with a GE prefix are inquiry- and project based. Lab and lecture activities require literature review, independent and group investigation in lab and often in field, interpretation, and verbal and written communication |
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understand and promote the maintenance of a safe science classroom as identified by the Council of State Science Supervisors, including the ethical and appropriate use of scientific equipment, and the safe storage, use, and disposal of materials; |
TE443 |
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TE443 is the best and most relevant place to hold a discussion of the supervision of a safe science learning environment. Laboratory safety is essential, and explicitly discussed in the CH115/116 syllabi, in all courses related to Earth/Space Science. However the discussion in a university laboratory centers on university student safety, not on the implications for science activities performed in distant (both physically and conceptually) secondary classrooms. In the science methods course we hold discussion regarding the Council of State Science Supervisors, illustrate reference sources such as Flinn Scientific Catalogs for laboratory/school safety, and we provide discipline specific information on laboratory safety, and practice laboratory safety inspections. We have used several different science methods textbooks over time, but each has given special attention to this important matter in a separate chapter in the textbook on science safety. The table of contents for Chiappetta’s book, referenced in the TE443 syllabus, has been provided for the reviewer’s reference. The chapter on laboratory safety, given a week’s instructional time in our course, addresses the discipline specific safety needs for each field of study. Teacher candidates prepare summaries of the textbook readings, and consistently relate their appreciation for the discipline specific discussion of safety topics. For example, the handling of animals in a biology class, the handling and disposal of waste from chemistry, and the health hazards of some minerals in earth/space science classes. We wish the reviewers to consider that not every web
reference provided in our comprehensive secondary science methods textbook can
be expected to also be present in the syllabus.
Further, it is not an explicit goal of every science course to
specifically and explicitly address the teaching standards for pre-service
teacher candidates. Some outcomes, and
their application into the secondary classroom, occur through the integration
of pedagogical and content knowledge – a process which requires analytical
synthesis and internalization of deep science knowledge in powerful learning
environments associated with the field placements. For example, electrical engineers may be
concerned about the use of ground fault interrupt circuits, but that need not
be an explicitly stated in the general chemistry syllabus – even if we do have
and use them in our laboratories.
Nevertheless, we recognize the intent of the reviewers, and have added
reference to the CSSS resources to all course syllabi. Laboratory safety is the topic of Chiappetta’s 14th chapter, which is discussed in
TE443. Chapter 14
Safety in the Laboratory and Classroom · Introduction · Safety and the Law · General Safety Responsibilities · Safety Goggles and Eye Protection · Specific Safety Guidelines for Biology · Specific Safety Guidelines for Chemistry · Safety in the Earth Science Laboratory · Safety Guidlines for Physics and Physical Science Laboratories · Radiation Safety · Safety Units for Students · Assessing and Reviewing · Resources to Examine · References
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7.0 |
demonstrate competence in the practice of teaching as defined within the Entry-Level Standards for Michigan Teachers; |
TE443 |
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create and maintain an educational environment in which conceptual understanding will occur for all science students; |
TE443 |
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The syllabi for content area courses describe the
content focused learning objectives and activities. These courses are used by many major and
minors. There are generally no
teacher-specific outcomes for teacher candidates identified in the syllabi, nor
are there engineering- or biology- or criminalistics- or environmental health-specific outcomes
explicit in the syllabi. The content
courses provide the foundation knowledge, and model learning activities
focusing on the application of that knowledge.
The education courses bring the content together with the pedagogy, and
through extensive pre-student teaching field experiences, and an extended
student teaching internship, these are put into practice in the secondary
classroom under the supervision and mentorship of a highly qualified practicing
teacher. The issues of diverse learners
in science instruction is specifically and explicitly discussed in Chiappetta’s eighth chapter during TE443, the Secondary
Science Methods course Chapter 8 Diverse
Adolescent Learners and Their Schools · Student Diversity · Equity in Science Education · Cultural and Linguistic Diversity · Gender-Inclusiveness · Exceptionalities · Adolescents' School Science Experience · Assessing and Reviewing Resources to Examine
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demonstrate competence in the practice of teaching through investigative experiences and by demonstrating the application of the scientific processes and in assessing student learning through multiple processes; and |
TE443 |
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The curriculum covered by
Earth/Space Science is an extensively laboratory based curriculum. There is a required laboratory component for
each course in the program. These laboratories focus on investigative
experiences and the application of the scientific process (evidenced by the
laboratory activities described in each syllabus). These laboratories have as their focus the
university teaching individuals (teacher candidates, pre-professional students,
pre-engineering students, pre-firefighters and others) through and about
investigative scientific processes. The
teacher candidate then uses these skills and applies them in the context of
their pre-service field experiences (90 hrs prior to student teaching, and
generally two semesters of supervised student teaching under the direction of a
highly qualified science educator). Chiappetta’s 13th chapter on laboratory work is
discussed in TE443 where teacher candidates relate their experiences in the
many chemistry laboratories to their new role as teacher and coordinator of
student learning in laboratory. Chapter 13
Laboratory and Field Work · What is Laboratory Work? · Preparing Students for Laboratory Experiences · Ensuring Successful Laboratory Experiences · Fieldwork · Assessing and Reviewing · Resources to Examine · References
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10.0 |
develop an understanding and appreciation for the nature of scientific inquiry. |
All courses with GE prefix; TE 443 |
All courses with GE prefix; TE 443 |