T ECHNOLOGY AND L EARNING W ITH T ECHNOLOGY IN M ATHEMATICS AND S CIENCE I NSTRUCTION By: Gabby Benningfield & Casey Hunt Chapter 11.

Slides:



Advertisements
Similar presentations
Inquiry-Based Instruction
Advertisements

E ducational T echnology I ntegration & Implementation P rinciples to guide teachers in their instructional decision making Sara Dexter University of Virginia.
How People Learn: Brain, Mind, Experience and School John D. Bransford, Ann L. Brown, and Rodney R. Cocking, editors.
Stephanie Burba, Noyce Graduate Tyler Ghee, Noyce Scholar Shelby Overstreet, Noyce Scholar Kathryn Crawford, Noyce Graduate Hope Marchionda, PhD Using.
STEM ACTION CENTER HB 150 Applied Science 7 th and 8 th Grade STEM Pathways and Certification.
Halomda Educational Software ( Established 1988) Mathematics and Science for Primary, Intermediate and High schools Computer Aided and e-Learning Math-XPress.
A Digital Age Skill for All Joe Kmoch Milwaukee Washington HS of IT For WI Math Council, May 2012 was: CT: An Important Idea for All Students:
Professional Development Resources at Your Fingertips Using Student Achievement Data to Support Instructional Decision Making Presented by: Marlene J.
Chapter 11 & 15 Bonnie & Bryan. CHAPTER 11 Why use technology in Science? ”Technology provides many opportunities to build students’ conceptual knowledge.
Algebraic Reasoning January 6, State of Texas Assessments of Academic Readiness (STAAR) More rigorous than TAKS; greater emphasis on alignment to.
Introduction 1.How do you use technology now? 2.What helps? 3.What hinders? Definition of Technology Computers Software Internet Digital cameras and camcorders.
Intel® Education K-12 Resources Our aim is to promote excellence in Mathematics and how this can be used with technology in order.
TECHNOLOGY & INSTRUCTION Janelle G. Protacio Reporter.
INACOL National Standards for Quality Online Teaching, Version 2.
Science Inquiry Minds-on Hands-on.
Computer Software in Today’s Classrooms Chapter 4.
Interactive Science Notebooks: Putting the Next Generation Practices into Action
Betsy Peisach and Pat Hemler. Free! Funded through the National Science Foundation Part of the National Service for Distributed Learning Elementary math.
Concepts and value of TI-Nspire™ Technology Module A.
Ryann Kramer EDU Prof. R. Moroney Summer 2010.
1 UTeach Professional Development Courses. 2 UTS Step 1 Early exposure to classroom environment (can be as early as a student’s first semester)
GV Middle School Mathematics Mrs. Susan Iocco December 10, 2014.
Betsy Peisach and Gail Vesely. Free! Funded through the National Science Foundation Part of the National Service for Distributed Learning Elementary math.
Margaret J. Cox King’s College London
1 Chapter No 3 ICT IN Science,Maths,Modeling, Simulation.
 1. Which is not one of the six principles that address crucial issues fundamental to all school math programs? A. Curriculum B. Assessment C. Measurement.
By: Kayla Ford, Jessica Hogue, and Shelby Spalding TEACHING AND LEARNING WITH TECHNOLOGY IN MATHEMATICS AND SCIENCE.
TECHNOLOGY WITH MATHEMATICS AND SCIENCE BY: BRITTANY OWENS & NATHAN JACKSON.
ENGLISH LANGUAGE ARTS AND READING K-5 Curriculum Overview.
NCTM Overview The Principles and Standards for Teaching Mathematics.
“If we teach today the way we were taught yesterday we aren't preparing students for today or tomorrow.” ~Author Unknown.
Technology in Science and Mathematics Instruction Session Five EDT 612.
21 st Century 2.0 Project Creating a 21 st Century Learning Environment at Hillview School.
Chapter 11 Technology in Mathematics and Science Instruction © 2010 Pearson Education, Inc. All rights reserved.
1. Principles Equity Curriculum Teaching 3 Assessment Technology Principles The principles describe particular features of high-quality mathematics programs.
Chapter 11 – Teaching and Learning with Technology in Mathematics and Science Instruction Cullen Byrne and Abby Harnack.
Implementation Strategies ONE COMPUTER and DATA PROJECTOR  Whole class lesson with mixed ability groups  Model use of manipulatives  Problem-solving.
 ByYRpw ByYRpw.
Teaching and Learning with Technology in Mathematics and Science Instruction Chapter 11.
1. REPLICAS OF REAL MANIPULATIVES THAT ARE ACCESSED VIA THE INTERNET AND CAN BE MANIPULATED THROUGH A KEYBOARD OR OTHER INPUT DEVICE ARE: A. VIRAL MANIPULATIVES.
8 th Grade Integers Natalie Menuau EDU Prof. R. Moroney Summer 2010.
1. An Overview of the Standards for School Mathematics? 2.
Technology in Math and Science Maria Rojas Angela Cyrus Jennifer Sepulvado.
Teaching Math Using Technology Author: David Moss Presentation by Emily Hunter.
Mathematics TEKS Connections Administrator Overview Grades 3-5.
Teaching to the Standard in Science Education By: Jennifer Grzelak & Bonnie Middleton.
The Evolution of ICT-Based Learning Environments: Which Perspectives for School of the Future? Reporter: Lee Chun-Yi Advisor: Chen Ming-Puu Bottino, R.
The game is changing. It isn't just about math and science anymore. It's about creativity, imagination, and, above all, innovation.” –Business Week Magazine.
11.1 Chapter 11 Technology in Mathematics and Science Instruction M. D. Roblyer Integrating Educational Technology into Teaching, 4/E Copyright © 2006.
Lecture # 32 SCIENCE 1 ASSOCIATE DEGREE IN EDUCATION Professional Standards for Teaching Science.
NOVA Evaluation Report Presented by: Dr. Dennis Sunal.
Halomda Educational Software ( Established 1988) Mathematics and Science for Primary, Intermediate and High schools, Colleges and Universities Computer.
Jennifer Bellah ESE /13/15.  Brain Pop  Online Tutorial  Simulations  Instructional Games  Problem Solving.
Welcome to STEM: It’s Not Just for Science Class Welcome to STEM: It’s Not Just for Science Class Sandra Dounce Presenter
Building Bridges. After school programs can provide: an environment in which children can practice ways of learning and behaving that will help them succeed.
Chapter 7 Learning by Exploring Microworlds and Virtual Realities 報告者:楊美菁.
Technology, Digital Media, and Curriculum Integration
Technology Integration Strategies for Science Instruction Integrating Educational Technology into Teaching Roblyer & Doering.
Qualities of an Aligned Lesson Aligning Content and Process.
Technology in 7 th and 8 th grade math – Mrs. Ranney
Introduction to Supporting Science. What Does Science Involve? Identifying a question to investigate Forming hypotheses Collecting data Interpreting data.
Introduction to Math Methods Math Standards. Why can math be fun? Math can be fun because… it can have so much variety in topics. many different ways.
Coding Connections at the Interface of Algebra I and Physical World Concepts Improving Teacher Quality Grant Program Summer 2016.
GIS Mapping for K-12 Students
Emporia State University
Math Curriculum “The philosophy of the Core Plus Mathematics Program is that students are working in groups to identify, investigate, and explore the.
CHAPTER 7 Using Technological Tools to Teach Mathematics
Why use the Engineering Design Process?
Technology in Math and Science
Doc. PaedDr. PhDr. Jiří DOSTÁL, Ph.D.
Presentation transcript:

T ECHNOLOGY AND L EARNING W ITH T ECHNOLOGY IN M ATHEMATICS AND S CIENCE I NSTRUCTION By: Gabby Benningfield & Casey Hunt Chapter 11

1.While these tools are usually used more at the elementary level, researchers report that they can also improve high school students’ attitudes towards mathematics. A.Virtual manipulates C. Calculator-based labs B.Graphing calculators D. Computer-based tutoring 2. Without this technology tool, it is difficult, if not impossible, for students to move from the symbolic realm of f(x)=x2-3 to the equivalent graphical rendering on an x-y coordinate to its accompanying numerical representation. A.Virtual manipulative C. Graphing calculator B.Mathematical simulation D. Geometry software 3. These programs allow users to create and manipulate geometric constructions. A.Calculator-based laboratory (CBL) C. Interactive or dynamic math manipulates B.Computer algebra system (CAS) D. Interactive or dynamic geometry software

4. This software is often used to facilitate activities such as planning a fund-raising activity or analyzing data from students’ counts of colors in a bag of M&Ms or other candies. A.Graphing calculators C. Probeware B.Counting software D. Spreadsheets 5. Through virtual schools propose that these can be effective, some science organizations object to them as poor substitutes for “the real thing.” A.Virtual manipulates C. Distance mentors B.Distance education courses D. Virtual science labs

MkY

I NTEGRATING T ECHNOLOGY F OR M ATH Bridging the gap between abstract and concrete with virtual manipulatives Benefits: Abstract mathematics concepts more concrete Flexible environments that allow exploration Concrete representations of abstract concepts

I NTEGRATING T ECHNOLOGY F OR M ATH Allowing Representation of Mathematical Principles Benefits: Visual depiction of abstract math concepts Environment that allows exploration Graphing Calculators Interactive or dynamic geometry software Computer algebra system (CAS)

I NTEGRATING T ECHNOLOGY F OR M ATH Supporting Mathematical Problem Solving Benefits: Gather data to use in problem solving Rich, motivating, problem-solving environments Opportunities to apply knowledge and skills Calculator-based laboratories (CLBs. or probeware)

I NTEGRATING T ECHNOLOGY F OR M ATH Implementing Data-Driven Curricula Benefits: Easy access to many data sets Real data and statistics to support investigations Develop skills in data analysis Allow exploration and presenting data

I NTEGRATING T ECHNOLOGY F OR M ATH Supporting math-related communications Benefits: Easy contact with math experts Promotes social interaction Teacher connection

I NTEGRATING T ECHNOLOGY F OR M ATH Motivating skill building and practice Benefits: Motivation for practicing foundational skills Guided instruction in a structured environment

Issues and Problems in Science Instruction -Accountability for Standards in Science -The Narrowing Pipeline of Scientific Talent -Increasing Need for Scientific Literacy -Difficulties in Teaching K-8 -Objections to Virtual Science Labs

Accountability for Standards in Science National Science Education Standards (NSES) The U.S. Department of Education and the National Science Foundation Endorse mathematics and science curricula that “promote active learning, inquiry, problem solving, cooperative learning, and other instructional methods that motivate students” National Committee on Science Education Standards and Assessment stated, “school science education must reflect science as it is practiced,” and that one goal of science education is “to prepare students who understand the modes of reasoning of scientific inquiry and can use them” To integrate technology in the science classroom on a regular basis, one must understand the meaning of technology in the context of science teaching and learning.

The Narrowing Pipeline of Scientific Talent Great concern has grown about America’s ability to compare in science, mathematics, and technology in the future. Females and minority students- pursing studies in math, science, and engineering fields. Trend could have serious consequences for the long-term economic and national security of our country Increasing Need for Scientific Literacy A need for ALL citizens to be scientifically literate in order to make informed decisions that affect our country’s future. American’s economic and environmental progress depends on the character and quality of the science education that the nation’s school provide.

Difficulties in Teaching K-8 Science is a rapidly changing area Elementary education teachers face a greater challenge One way to assist teachers in science is through professional development (PD). Online PD opportunities help increase elementary teachers to improve in these important areas

Objections to Virtual Science Labs Students need to DO not just see Hands-on/minds-on science- engaging in in-depth investigations with objects, materials, phenomena, and ideas and drawing meaning and understanding from those experiences. Virtual Schools can provide the science without the danger

Technology Integration Strategies for Science Instruction Technology Integration StrategiesBenefitsSample Resources and Activities Involving students in scientific inquiry through authentic online projects Internet project provide environments that support all phases of authentic science experience Data Loggers Globe Project: GLOBE Program: Support for specific processes in scientific inquiry Helps students locate & obtain info to support inquiry Makes data collection & analysis more manageable Makes phenomena easier to visualize & understand Helps students communicate results of inquires CBLs and spreadsheets The Exploratorium Museum: Supporting science skills and concept learning Allows students to simulate & model various scientific processes Provides opportunities to engage in problem solving Poll Everywhere text message (use cell phones as clickers) Engaging students in engineering topics through robotics Gives students experience w/ engineering principles Gets students thinking abt engineering careers NASA’s Robotics Alliance project: Accessing science information and tools Offers sources of information, lesson plans on science topics Telescopes in Education: Other science resource websites for teachers Offers sources of information, lesson plans on science topics National Science Education Standards

Needs and Challenges in Mathematics and Science Instruction Technologies are integral part of modern mathematics education and science education because they are essential in the field themselves. Mathematics and Science Content Knowledge -Training the workforce of tomorrow Mathematics and Science Pedagogical Knowledge -Must teach in engaging and motivational, while maintaining effective achievements. Mathematics and Science Technological Knowledge - Teachers must master the tools of technology

R ELATED W EBSITES National Council of Teachers of Mathematics Math Forum at Drexel-Internet Math Library Texas Instruments Resources for Educators Free Mathomatic computer algebra system Free science tutorials and games International Technology and Engineering Educators Association Science website engaging in in-depth investigations with objects, materials, phenomena, and ideas and drawing meaning and understanding from those experiences.

1.While these tools are usually used more at the elementary level, researchers report that they can also improve high school students’ attitudes towards mathematics. A.Virtual manipulates C. Calculator-based labs B.Graphing calculators D. Computer-based tutoring 2. Without this technology tool, it is difficult, if not impossible, for students to move from the symbolic realm of f(x)=x2-3 to the equivalent graphical rendering on an x-y coordinate to its accompanying numerical representation. A.Virtual manipulative C. Graphing calculator B.Mathematical simulation D. Geometry software 3. These programs allow users to create and manipulate geometric constructions. A.Calculator-based laboratory (CBL) C. Interactive or dynamic math manipulates B.Computer algebra system (CAS) D. Interactive or dynamic geometry software

4. This software is often used to facilitate activities such as planning a fund-raising activity or analyzing data from students’ counts of colors in a bag of M&Ms or other candies. A.Graphing calculators C. Probeware B.Counting software D. Spreadsheets 5. Through virtual schools propose that these can be effective, some science organizations object to them as poor substitutes for “the real thing.” A.Virtual manipulates C. Distance mentors B.Distance education courses D. Virtual science labs