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Science Curriculum Developer

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March 29, 2024 Updated April 14, 2025 18 minute read

A Science Curriculum Developer is a professional who designs, creates, and refines educational materials and programs specifically for science subjects. They focus on what students should learn, how they should learn it, and how that learning should be measured. This role bridges the gap between scientific knowledge and effective educational practices, ensuring that science learning is engaging, accurate, and meets specific learning objectives and standards.

Working as a Science Curriculum Developer can be deeply rewarding. You have the chance to shape how future generations understand the natural world and scientific inquiry. It's a field that blends creativity with analytical thinking, allowing you to design innovative learning experiences while ensuring they are grounded in sound pedagogy and scientific accuracy. Furthermore, the role often involves collaboration with diverse experts, from scientists to teachers, making it a dynamic and intellectually stimulating career path.

What Does a Science Curriculum Developer Do?

Understanding the day-to-day responsibilities helps clarify the scope of this vital educational role. It involves much more than simply writing lesson plans; it encompasses the entire lifecycle of instructional materials for science education.

Designing and Aligning Science Content

A core responsibility is designing science content that is appropriate for the target audience, whether they are elementary students grasping basic concepts or university students exploring advanced topics. This involves selecting relevant scientific information and structuring it logically. Developers must ensure all materials align with established educational standards, such as the Next Generation Science Standards (NGSS) in the United States or other regional or national frameworks.

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Salaries for Science Curriculum Developer

City
Median
New York
$124,000
San Francisco
$123,000
Seattle
$110,000
See all salaries
City
Median
New York
$124,000
San Francisco
$123,000
Seattle
$110,000
Austin
$102,000
Toronto
$103,000
London
£67,000
Paris
€64,000
Berlin
€74,000
Tel Aviv
₪121,000
Singapore
S$12,000
Beijing
¥125,000
Shanghai
¥182,000
Shenzhen
¥640,000
Bengalaru
₹405,000
Delhi
₹275,000
Bars indicate relevance. All salaries presented are estimates. Completion of this course does not guarantee or imply job placement or career outcomes.

Path to Science Curriculum Developer

Take the first step.
We've curated nine courses to help you on your path to Science Curriculum Developer. Use these to develop your skills, build background knowledge, and put what you learn to practice.
Sorted from most relevant to least relevant:

Reading list

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Specifically addresses the integration of computation, modeling, and simulation practices into undergraduate STEM classrooms. It provides pedagogical guidance for instructors, directly aligning with the use of PhET simulations which are modeling and simulation tools. It valuable resource for university-level educators looking to incorporate simulations effectively.
Provides a comprehensive overview of simulations for the social sciences, covering a wide range of topics from the history of simulations to the latest advances in agent-based modeling. Selten, a Nobel laureate in economics, provides a unique perspective on the role of simulations in social science research.
Given that PhET simulations are designed for inquiry-based learning, this book is highly relevant as it provides a conceptual and practical guide to implementing this approach in STEM programs. It can help educators understand the pedagogical framework that PhET simulations support and how to design effective inquiry-based activities. It valuable resource for teachers and teacher educators.
Explores the design, implementation, and research on digital simulations for improving teaching and learning. It provides insights into the potential of simulations as 'artificial teaching environments,' which is directly relevant to understanding the educational power of PhET simulations. It useful resource for educators and researchers interested in the pedagogical design of simulations.
Provides a comprehensive overview of simulation in the social sciences, covering a wide range of topics from the history of simulation to the latest advances in agent-based modeling. Gilbert and Troitzsch provide a unique perspective on the role of simulation in social science research.
This comprehensive handbook synthesizes research in STEM education, covering various themes including learning, pedagogy, curriculum, and critical issues. It provides a broad understanding of the landscape in which PhET simulations are used and can inform educators and researchers on best practices and current trends. It valuable reference for graduate students and professionals.
Bridges the gap between instructional design and game design, offering a practical guide to creating effective learning games. Given the interactive and often game-like nature of PhET simulations, this book can help educators understand the principles behind designing engaging simulated experiences and how to integrate them effectively into their teaching. It's a useful resource for anyone designing learning activities.
Provides a wide range of practical strategies for implementing active learning in any subject. Since PhET simulations are often used in active learning settings, this book can serve as a valuable resource for educators looking for diverse ways to incorporate simulations into engaging lesson plans and activities. It practical guide for teachers across disciplines.
Offers practical guidance on effective STEM teaching and learning strategies, including the use of technology and active learning. It provides a strong foundation in pedagogical approaches relevant to using simulations like PhET in the classroom. This useful reference tool for educators at all levels looking to improve their practice.
This guide focuses on designing engaging learning experiences using games and active learning techniques. PhET simulations often incorporate game-like elements and are used in active learning settings, making this book relevant for educators looking to design effective activities around simulations. It provides practical advice for incorporating play and engagement into instruction.
Provides an in-depth look at the use of interactive simulations for physics education, discussing the benefits and challenges associated with this approach. The authors provide numerous examples of how simulations can be used to teach various physics concepts, and they offer practical tips for developing and using simulations in the classroom.
Chronicles the evolution of STEM teaching and learning, including the impact of emerging technologies and active learning pedagogies. It provides a broad overview of the current landscape of STEM education, offering context for the role and potential of tools like PhET simulations in shaping the future of the field. It is suitable for educators, researchers, and policymakers.
This book, part of the "Advances in Chemistry Education" series, focuses on instructional approaches and teaching techniques specifically in chemistry education. Given the significant number of PhET simulations in chemistry, this book can provide valuable context and pedagogical strategies for effectively using simulations to teach chemistry concepts. It is relevant for chemistry educators and researchers.
Aimed at high school and undergraduate students, this book introduces the use of computer simulations in STEM fields. While not specific to PhET, it provides foundational knowledge on how simulations are used to solve problems, which is directly applicable to understanding the purpose and value of PhET simulations. It can serve as helpful background reading.
While a more theoretical text, this book explores the role of language in mathematics education. Understanding how students interpret mathematical concepts is crucial when using visual and interactive tools like PhET simulations in math. can offer deeper insights into the cognitive processes involved in learning mathematics with simulations, particularly for graduate students and researchers in mathematics education.
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