EBD Unit 1 Lesson One.

Slides:



Advertisements
Similar presentations
A Framework for Universal Design for Learning
Advertisements

Inquiry-Based Instruction
The 5 E Instructional Model
Department of Mathematics and Science
Learning Outcomes: the impact on teachers and trainers Edwin Webb Emeritus Reader in Education and Training University of Greenwich London.
1 Friday May 26, Inquiry-Based Lessons in the Technology-Rich Classroom Essential Question: How can teachers incorporate inquiry into the lesson-design.
8 th Grade “Capstone” Course 9 Weeks Technological Systems.
Chapter 10.  Basic Functions  Insert Graphics, Audio/Video  Add Text  Create Links  Capture Brainstormed Ideas  Generate Outline  Organize Graphics,
OUTCOME MEASUREMENT TRAINING Logic Models OBJECTIVES FOR TODAY: n Recognize and understand components of a logic model n Learn how to create a logic.
Chapter 9 ~~~~~ Mathematical Assessment. 2 Basic Components Mathematics Content : understanding of the mathematical processes Content : understanding.
The 5 E Instructional Model
Boot Camp Spring  Choose a class and complete a Context for Learning for this class. (It can be the same class as the literacy tasks, but YOU MUST.
Task 4 Mathematics Boot Camp Fall, 2015.
A Framework for Inquiry-Based Instruction through
8 th Grade “Capstone” Course 9 Weeks Technological Systems.
Unit Presentation Ruth Arce. “ A man paints with his brains and not with his hands” -Michelangelo.
5 E’s Lesson Model.
The 5 E’s Science Lesson Inquiry-Based Instruction.
The 5e Instructional Model A Constructivist Approach to Education.
Session 4 Performance-Based Assessment
April 25 th Classrooms for the Future Facts 08’  358 High Schools in PA  12,100 Teachers  83,000 Laptops  101 Million Statewide Spent  3.75.
INSTRUCTIONAL OBEJECTIVES PURPOSE OF IO IO DOMAINS HOW TO WRITE SMART OBJECTIVE 1.
M= Math in STEM College and Career Ready- Conference Summer, 2015.
Design Basics. Standards MSENGR-TS-2 The students will develop an understanding of how the design process is used to develop a technological system. a)
The 5 E Instructional Model. Concepts of Science Science Content Process Skills of Science.
Chapter 9.  Multimedia- communication that involves more than one format.  Basic Functions- can incorporate text, graphics, pictures and photos, video,
EdTPA Elementary Mathematics. The Big Picture Plan a “Learning Segment” (3-5 lessons) Consistent with the Common Core and the NCTM Standards, the learning.
Effective mathematics instruction:  foster positive mathematical attitudes;  focus on conceptual understanding ;  includes students as active participants.
The 5 E Instructional Model A Framework for Inquiry-Based Instruction.
Good Morning Please come in and pick a table. At least 2 people need to sit at each table. Take a piece of purple paper out of the basket. Trace your hand.
Exploring Inventors/Inventions of the Industrial Revolution & Using the Invention Process.
Chapter 6 Assessing Science Learning Updated Spring 2012 – D. Fulton.
21 st Century Learning Activity Rubric. COLLABORATION Students work as a group. They have equal responsibility in completing the task given. Each member.
Invention & Innovation
Inquiry-Based Instruction
Yr 10: Active For Life Pathway Subject(s): VCE Physical Education
Module 4: Overview of the EQuIP Rubric
May 2015 End of Year Training
DESIGNING A LOGO.
Animals use their senses for survival
Writing in Math: Digging Deeper into Short Constructed Responses
STEM Learning Module PISA- Summer 2007
A Level Computing – A2 Component 2 1f, 1g, 1h, 1i, 1j.
Technology and 21st Century Skills Assessment Rubric
Who Are We ? Classroom teachers with some ELL students in our class
Mapping it Out! Practical Tools to Use Assessment Well
K-3 Student Reflection and Self-Assessment
What is the difference between training and facilitation?
My (insert name) Floating City.
Item 1: This task required students to evaluate search results to choose the most appropriate one for a specified topic. This task illustrates achievement.
Complex Instruction: Concepts and Principles
2nd Grade Evaluative Thinking Lesson Construction Thinkers Key – Intro for Teachers CCSD Advanced Learning – Talent Development.
3rd Grade Evaluative Thinking Lesson
Invention & Innovation
THE POTENTIAL FOR INTERCULTURAL COMPETENCE
African Music 1. Question & Research Task
Project Category Grade Level
Inquiry in Science.
4th Grade Evaluative Thinking Lesson
5 E Instructional Model created by Debra DeWitt
−7+
Anatomy An Introduction.
YEAR 9 DANCE DANCE SKILLS UNIT ..
M3 D2 Effectively lead a team & evaluate your leadership abilities
Key Question: What is a simple machine?
Engineering Design Process
Student Learning Outcomes Assessment
Planning a Speaking Lesson
Practical Team Sports. UNIT OUTCOMES 1. Understand the skills, techniques and tactics required in contrasting team sports. 2. Understand the rules and.
Presentation transcript:

EBD Unit 1 Lesson One

Unit Objectives Lesson 1: Exploring Technological Systems Students will learn to: Explain that new products and systems can be developed to solve problems or to help do things that could not be done without the help of technology. Explain why the development of technology is a human activity and is the result of individual or collective needs and the ability to be creative. Compare and contrast natural and human-made systems. Describe how parts or components of a system work together to accomplish a goal. Define the term “system.” Make a two-dimensional representation of a technological system. Disassemble a common product and identify the common systems and subsystems found inside. Analyze precision, accuracy, and approximate error in measurement situations. Contribute to a group endeavor by offering useful ideas, supporting the efforts of others, and focusing on the task

Selected Learning Objectives: Students will learn to: Compare and contrast natural and human-made systems. Describe how parts or components of a system work together to accomplish a goal. Make a two-dimensional representation of a technological system. Disassemble a common product and identify the common systems and subsystems found inside. Analyze precision, accuracy, and approximate error in measurement situations.

Activity Highlights Engagement: Pairs of students compare and contrast a natural system (human anatomy, including the following subsystems: respiratory system, cardiovascular system, skeletal system, digestive system, nervous system, and muscular system) with a human-made system (automobile, including the following subsystems: power train, electrical system, coolant system, fuel system, exhaust system, brake system, and steering system). Exploration: Working in small groups, students analyze a home heating system. Explanation: The teacher demonstrates the use of a systems model (graphic) to analyze a technological system, including input, process, output and, at times, feedback. Extension: Students assemble and use a simple communication system to send and receive a message. Evaluation: Student knowledge, skills, and attitudes are assessed using selected response items and rubrics for brief constructed responses and class participation.