For holders of physical education or family and consumer science endorsements, completion of 18 credit hours in health to include coursework in public or community health, personal wellness, substance abuse, family life education, mental/emotional health, and human nutrition. A current certificate of CPR training is required in addition to the coursework requirements.
* Understand and apply knowledge of energy in the earth system.
* Understand and apply knowledge of geochemical cycles.
* Understand and apply knowledge of the origin and evolution of the earth system.
* Understand and apply knowledge of the origin and evolution of the universe.
* Understand and apply knowledge of the cell.
* Understand and apply knowledge of the molecular basis of heredity.
* Understand and apply knowledge of the interdependence of organisms.
* Understand and apply knowledge of matter, energy, and organization in living systems.
* Understand and apply knowledge of the behavior of organisms.
* Understand and apply knowledge of biological evolution.
* Understand and apply knowledge of the structure of atoms.
* Understand and apply knowledge of the structure and properties of matter.
* Understand and apply knowledge of motions and forces.
* Understand and apply knowledge of interactions of energy and matter.
* Understand and apply knowledge of conservation of energy and increase in disorder.
* Understand and apply knowledge of chemical reactions.
* Be able to design and conduct scientific investigations.
* Bilingual and ESL methods.
* Literacy in native and second language.
* Methods for subject matter content.
* Adaptation and modification of curriculum.
* Knowledge of first and second language proficiency.
* Knowledge of first and second language acquisition.
* Language to include structure and grammar of English.
NOTE: Teachers in specific subject areas will not be required to hold this endorsement if they teach gifted students in their respective endorsement areas.
* Engineering and technological design courses for education majors;
* Technology or engineering content coursework.
* Comparing and contrasting the nature and goals of each of the STEM disciplines;
* Promoting learning through purposeful, authentic, real-world connections;
* Integration of content and context of each of the STEM disciplines;
* Interdisciplinary/transdisciplinary approaches to teaching (including but not limited to problem-based learning and project-based learning);
* Curriculum and standards mapping;
* Engaging subject-matter experts (including but not limited to colleagues, parents, higher education faculty/students, business partners, and informal education agencies) in STEM experiences in and out of the classroom;
* Assessment of integrative learning approaches;
* Information literacy skills in STEM;
* Processes of science and scientific inquiry;
* Mathematical problem-solving models;
* Communicating to a variety of audiences;
* Classroom management in project-based classrooms;
* Instructional strategies for the inclusive classroom;
* Computational thinking;
* Mathematical and technological modeling.
* Completing a STEM research experience;
* Participating in a STEM internship at a STEM business or informal education organization; or
* Leading a STEM extracurricular activity.
* Engineering and technological design courses for education majors;
* Technology or engineering content coursework.
* Comparing and contrasting the nature and goals of each of the STEM disciplines;
* Promoting learning through purposeful, authentic, real-world connections;
* Integration of content and context of each of the STEM disciplines;
* Interdisciplinary/transdisciplinary approaches to teaching (including but not limited to problem-based learning and project-based learning);
* Curriculum and standards mapping;
* Engaging subject-matter experts (including but not limited to colleagues, parents, higher education faculty/students, business partners, and informal education agencies) in STEM experiences in and out of the classroom;
* Assessment of integrative learning approaches;
* Information literacy skills in STEM;
* Processes of science and scientific inquiry;
* Mathematical problem-solving models;
* Communicating to a variety of audiences;
* Classroom management in project-based classrooms;
* Instructional strategies for the inclusive classroom;
* Computational thinking;
* Mathematical and technological modeling.
* Completing a STEM research experience;
* Participating in a STEM internship at a STEM business or informal education organization; or
* Leading a STEM extracurricular activity.
* Engineering and technological design courses for education majors;
* Technology or engineering content coursework.
* STEM curriculum and methods:
- Comparing and contrasting the nature and goals of each of the STEM disciplines;
- Promoting learning through purposeful, authentic, real-world connections;
- Integration of content and context of each of the STEM disciplines;
- Interdisciplinary/transdisciplinary approaches to teaching (including but not limited to problem-based learning and project-based learning);
- Curriculum/standards mapping;
- Assessment of integrative learning approaches;
- Information literacy skills in STEM;
- Processes of science/scientific inquiry;
- Mathematical problem-solving models;
- Classroom management in project-based classrooms;
- Instructional strategies for the inclusive classroom;
- Computational thinking;
- Mathematical and technological modeling.
* STEM experiential learning:
- Engaging subject-matter experts (including but not limited to colleagues, parents, higher education faculty/students, business partners, and informal education agencies) in STEM experiences in and out of the classroom;
- STEM research experiences;
- STEM internship at a STEM business or informal education organization;
- STEM extracurricular activity;
- Communicating to a variety of audiences.
* Leadership in STEM:
- STEM curriculum development and assessment;
- Curriculum mapping;
- Assessment of student engagement;
- STEM across the curriculum;
- Research on best practices in STEM;
- STEM curriculum accessibility for all students.
* Understand the features of standardized norm-referenced assessments.
* Understand the importance of selecting reliable and valid assessments to evaluate typical and atypical reading development.
* Interpret various scores derived from standardized norm-referenced and criterion-referenced assessments.
Iowa Admin. Code r. 282-13.28