This integrated unit spans 5 weeks and involves English, social studies, and math teachers. Junior students will examine the history of communication technologies and their impact on connecting generations. They will create a presentation on modern communication technologies for seniors. Objectives include analyzing themes in writing, understanding persuasive essays, examining periodic functions in math, and identifying how details support arguments. Students will explore technologies from radio to computers and their mathematical bases. The culminating project will be a presentation bridging generations through communication technology.
Here are three examples of methodologies from different disciplines:
Methodology Example #1 (Social Science):
I will conduct semi-structured interviews with 30 participants to understand their perspectives on the issue. The interviews will be recorded and transcribed. Using thematic analysis, I will code the transcripts to identify common themes. I will also analyze 10 policy documents using content analysis to see how the issue is framed by policymakers.
Methodology Example #2 (Sciences/Engineering):
An experiment will be conducted using a custom apparatus I have designed and built. It consists of a laser, mirrors, beamsplitters, lenses, detectors, and a motion stage. A laser beam will be split into two paths of varying lengths and
Students will participate in a simulated archaeological dig as a culminating project. They will be split into teams to dig at assigned sites, decode artifacts, perform radiometric dating to determine artifact ages, restore artifacts, and reflect on the process. The objectives are for students to integrate content areas like using GPS for site location, radiometric dating to date tablets, analyzing tablets, and documenting findings. Relevant standards cover social sciences like history analysis and economics, English skills like research and writing, math like geometry and trigonometry, and science concepts like radioactive decay and half-life calculation.
This lesson plan introduces students to conic sections through interactive activities using Geometer's Sketchpad, Conic Flyer, TI-84 calculators, and comic creation software. Over two days, students will manipulate virtual conics to discover properties like center and intercepts. They will reinforce this by using TI applications and create comics demonstrating their understanding. The plan aims to differentiate instruction through collaborative, technology-enhanced activities addressing higher-order thinking according to state standards.
This document outlines the agenda and topics for an introductory robotics class taught by Mr. Kopec over the course of one week. The class will cover basic robotic movement concepts like trajectory, gear ratios, torque, and speed. Students will build a SquareBot robot and modify its gear system. They will collect motion data, perform regressions, and discuss motor commands. An examination on Friday will involve writing code for a rover to navigate obstacles on Mars.
The document outlines a scheme of work for a Form 4 Physics class, including topics to be covered such as Electronics, Radioactivity, Electromagnetism, and Mechanical Structures over the term. Objectives, competencies, references, resources, methodologies, and evaluation are provided for each topic. The aims are to develop research, experimental, and practical skills in Physics and apply principles to life and further studies.
This document provides information and tasks related to investigating parabolic curves through the design of suspension bridges and industrial packaging. It outlines three approaches - arithmetic, procedural, and conceptual - for examining parabolas in real-life applications. Students are asked to draw bridge plans showing supports, cables, and hangers on a coordinate plane and calculate related values. For packaging, students define the three investigation approaches and derive equations to generalize box dimensions and maximize capacity based on variable input.
This document provides information and tasks related to investigating parabolic curves through the design of suspension bridges and industrial packaging. It outlines three approaches - arithmetic, procedural, and conceptual - for examining parabolas in real-life applications. Students are asked to draw bridge plans showing supports, cables, and hangers on a coordinate plane and calculate related values. For packaging, students define the three investigation approaches and derive generalized equations to calculate box dimensions and capacity based on a given variable.
The document provides course structures and syllabi for the first year B.Tech program under the R20 regulations at Jawaharlal Nehru Technological University Anantapur. It includes details of the induction program in semester 0 and the courses offered in semesters 1 and 2 for the Computer Science Engineering (Artificial Intelligence) program. The courses cover topics such as linear algebra, calculus, chemistry, C programming, data structures, physics, communication skills, and engineering workshops and laboratories. The document provides information on course codes, categories, credits, and learning outcomes for each course.
The document outlines the syllabus and curricular mapping for a Bachelor of Technology in Computer Science and Engineering program effective from the 2023-24 academic year. It includes the program outcomes (POs) and program specific outcomes (PSOs) as well as course outcomes (COs) and how they map to the POs and PSOs for specific courses in the first semester, including Mathematics-IA and Physics-I. The university syllabus is also provided for each course, listing the units of study and hours per unit.
These STEM Precalculus lessons are a continuation of previous foundations from NASAs STEM Algebra 1/2 and Geometry lessons. Students use functions, equations, and limits to express generalizations and to analyze and understand a broad variety of mathematical relationships. These Precalculus STEM lessons teach studens how to use functions to represent not only algebraic and geometric situations, but those involving probability, statistics and trigonometry, as well as calculus. Some of these precalculus lessons require students to use the Texas Instruments Nspire calculator. Also, for additional precalculus lessons, texts and videos, take a look at 165 Precalculus Videos with Texts, Exercises and Reviews.
Homework 21. Complete Chapter 3, Problem #1 under Project.docxadampcarr67227
油
Homework 2
1. Complete Chapter 3, Problem #1 under Project: Statistical Analysis in Inverse Problems
Using Simulated Data on pages 5859 of B&T. Use the same initial conditions as before from
Chapter 2.
2. Consider the logistic population growth model
x = ax bx2, x(0) = x0.
Let K = a
b
. We will examine the model for the q = (a, b, x0) parameter vectors
(i) q = (0.5, 0.1, 0.1) K = 5 (relatively flat curve),
(ii) q = (0.7, 0.04, 0.1) K = 17.5 (moderately sloped curve),
(iii) q = (0.8, 0.01, 0.1) K = 80 (relatively steep curve).
Define the regions R0, R1, and R2 as follows:
R0 is the region where t [0, 2],
R1 is the region where t (2, 12],
R2 is the region where t (12, 16].
For each parameter vector q:
(a) Let n = 15. For i = 0, sample n points from region Ri, distributed uniformly over the interval.
Find the qOLS optimized parameters for 3 different initial guesses that are far from the true
solution. (You can use the same initial guesses for all regions and all q parameter vectors).
Calculate J(qOLS) where J is the cost function of the least squares criterion. Calculate
K = a
b
. Include all results in a table.
For the optimal qOLS with the lowest cost J(qOLS), plot the solution curve for the true
solution and the estimated solution on the same plot with the sampled data points. How
do the results compare to the true solution? Determine the standard errors and confidence
intervals. Are the true parameters contained within the confidence interval?
Then repeat for i = 1. Then repeat for i = 2.
(b) Repeat problem (a) with n = 50.
(c/d) Repeat problems (a) and (b), but sampling from a uniform distribution over the entire region
t [0, 16] instead of a single Ri region.
(e) When sampling from only region Ri, does increasing the sample size improve the results?
How does this vary for i = 0, 1, 2? What if you sample over all three regions?
1
MATHEMATICAL
AND EXPERIMENTAL
MODELING OF
PHYSICAL AND
BIOLOGICAL
PROCESSES
TEXTBOOKS in MATHEMATICS
Series Editor: Denny Gulick
PUBLISHED TITLES
COMPLEX VARIABLES: A PHYSICAL APPROACH WITH APPLICATIONS AND MATLAB速
Steven G. Krantz
INTRODUCTION TO ABSTRACT ALGEBRA
Jonathan D. H. Smith
LINEAR ALBEBRA: A FIRST COURSE WITH APPLICATIONS
Larry E. Knop
MATHEMATICAL AND EXPERIMENTAL MODELING OF PHYSICAL AND BIOLOGICAL PROCESSES
H. T. Banks and H. T. Tran
FORTHCOMING TITLES
ENCOUNTERS WITH CHAOS AND FRACTALS
Denny Gulick
MATHEMATICAL
AND EXPERIMENTAL
MODELING OF
PHYSICAL AND
BIOLOGICAL
PROCESSES
H. T. Banks
H. T. Tran
TEXTBOOKS in MATHEMATICS
CRC Press
Taylor & Francis Group
6000 Broken Sound Parkway NW, Suite 300
Boca Raton, FL 33487-2742
息 2009 by Taylor & Francis Group, LLC
CRC Press is an imprint of Taylor & Francis Group, an Informa business
No claim to original U.S. Government works
Version Date: 20130920
International Standard Book Number-13: 978-1-4200-7338-6 (eBook - PDF)
This book contains information obtained from authentic a.
By the end of Year 5, students will have developed skills in the four operations, using strategies to solve problems and check answers. They will be able to identify factors and multiples, explain simple budgets, and connect 3D objects to 2D representations. Students will describe transformations of 2D shapes and compare data sets, ordering decimals and fractions on number lines. They will measure different units and calculate perimeter and area of rectangles.
The document is a daily lesson log for a Grade 11 physics class. It outlines the objectives, content, learning resources, and procedures for four class periods on the topics of:
1) Alternating current, LC circuits and their applications (Day 1)
2) Electric charge, Coulomb's law, and electric fields and flux (Day 2)
3) Reflection, refraction, total internal reflection, and applications of geometric optics (Day 3)
4) Reflection, refraction, dispersion, and polarization (Day 4)
The log provides details on the standards, competencies, examples, group activities, and concepts that will be discussed to teach the physics principles for each day.
Track 6 - Mobile Apps and computational systems as learning tools
Authors: Santiago E. Moll, Jos辿-A. Mora単o, Luis M. S叩nchez-Ruiz and Nuria Llobregat-G坦mez
The document provides a lesson plan on magnetism that includes the following:
- Three learning objectives about determining the direction of magnetic fields from permanent magnets and current-carrying wires.
- A 60-minute outline of the lesson that engages students, has them explore the topic through reading, explains key concepts, extends understanding through additional examples, and evaluates learning.
- Standards from Next Generation Science and Common Core are cited.
- References textbook correlations to provide additional resources on magnetism.
Exploratory computing: designing discovery-driven user experiencesLuigi Spagnolo
油
The document proposes a framework called FELIS for facilitating exploratory user experiences over large information spaces through iterative querying and visualization of faceted metadata. It describes a knowledge representation and query language called FelisQL and measures for estimating the relevance and correlation of features to provide feedback during explorations. The framework is demonstrated through an example interface for exploring artworks.
This lesson plan outlines a collaborative project between a 6th grade math teacher and school librarian to teach students about surface area and volume. Students will learn about solid figures through books, videos, and online resources before creating a 3D model and PowerPoint presentation applying formulas to calculate surface areas and volumes. The project will be assessed based on a rubric evaluating students' models, calculations, presentations, and self-reflections.
Physics-practical-work.ppt practical in physicspandyasohamlpis
油
Physics is the natural science of matter, involving the study of matter, its fundamental constituents, its motion and behavior through space and time, and the related entities of energy and force.[1] Physics is one of the most fundamental scientific disciplines.[2][3][4] A scientist who specializes in the field of physics is called a physicist.
Physics is one of the oldest academic disciplines and, through its inclusion of astronomy, perhaps the oldest.[5] Over much of the past two millennia, physics, chemistry, biology, and certain branches of mathematics were a part of natural philosophy, but during the Scientific Revolution in the 17th century, these natural sciences branched into separate research endeavors.[a] Physics intersects with many interdisciplinary areas of research, such as biophysics and quantum chemistry, and the boundaries of physics are not rigidly defined. New ideas in physics often explain the fundamental mechanisms studied by other sciences[2] and suggest new avenues of research in these and other academic disciplines such as mathematics and philosophy.
Advances in physics often enable new technologies. For example, advances in the understanding of electromagnetism, solid-state physics, and nuclear physics led directly to the development of new products that have dramatically transformed modern-day society, such as television, computers, domestic appliances, and nuclear weapons;[2] advances in thermodynamics led to the development of industrialization; and advances in mechanics inspired the development of calculus.
Natural philosophy
Main article: Natural philosophy
Natural philosophy has its origins in Greece during the Archaic period (650 BCE 480 BCE), when pre-Socratic philosophers like Thales rejected non-naturalistic explanations for natural phenomena and proclaimed that every event had a natural cause.[13] They proposed ideas verified by reason and observation, and many of their hypotheses proved successful in experiment;[14] for example, atomism was found to be correct approximately 2000 years after it was proposed by Leucippus and his pupil Democritus.[15]
Aristotle and Hellenistic Physics
During the classical period in Greece (6th, 5th and 4th centuries BCE) and in Hellenistic times, natural philosophy developed along many lines of inquiry. Aristotle (Greek: 畆旅凌劉了侶, Aristot辿ls) (384322 BCE), a student of Plato, wrote on many subjects, including a substantial treatise on "Physics" in the 4th century BC. Aristotelian physics was influential for about two millennia. His approach mixed some limited observation with logical deductive arguments, but did not rely on experimental verification of deduced statements. Aristotle's foundational work in Physics, though very imperfect, formed a framework against which later thinkers further developed the field. His approach is entirely superseded today.
He explained ideas such as motion (and gravity) with the theory of four elements. Aristotle believed that each of..
The document provides a project menu for a second grade space unit with activities tiered by difficulty into three columns. The first column contains more advanced activities, the second column contains on-level activities, and the third column contains novice activities. Students must complete at least three activities, which can be accessed at school during free time or at home. The activities include calculating weight on other planets, building a solar system model, writing planet advertisements, and more, and are designed to be educational while allowing choice for students of different levels.
The document provides a project menu for a second grade space unit with activities tiered by difficulty into three columns. The first column contains more advanced activities, the second column contains on-level activities, and the third column contains novice activities. Students must complete at least three activities, which can be accessed at school during free time or at home. The activities include calculating weight on other planets, building a solar system model, writing planet advertisements, and more, and are designed to be educational while allowing choice for students of different levels.
This course description outlines the Spring 2013 Design Foundations II course at the City University of New York. The course is a 6 hour studio course worth 3 credits taught by Professor Esteban Beita. The course builds on students' design skills from Design Foundations I, increasing their ability to perceive visual cues and create and interpret 2D and 3D designs using both hand and digital skills. Students will complete several projects using an iterative design process. The course is required in the design sequence and has prerequisites of Design Foundations I and Visual Studies I with grades of C or higher. Attendance may not exceed 10% absence. The course will include lectures, presentations, workshops and critiques. Students will be graded on several projects,
This document provides a draft syllabus for a course on Communicative English for undergraduate engineering students.
The syllabus is divided into 5 units which cover topics like grammar, vocabulary, reading, writing and listening skills. Specific chapters from two textbooks are prescribed for detailed and non-detailed study in each unit. The objectives of the course are to enable students to communicate effectively in English for academic and social purposes and to enhance their language skills. Assessment will include exercises from textbooks, classroom activities and discussions on materials like newspaper articles. The expected outcome is that students will develop communicative competence through practice of language skills.
This document provides the technology standards extracted from the Common Core State Standards for English Language Arts. It includes the standards for integrating and evaluating content presented in diverse formats for literature from grades K-12. It also includes standards for analyzing the structure of informational texts, including how text features contribute to the overall meaning, from grades K-12. Special thanks is given to the Fresno County Office of Education for their work compiling these technology standards.
This document provides a design challenge for students to create a prototype model of a space colony on Mars. Students will work in teams to design modular components for living and working areas that can be transported to Mars and assembled. The space colony must support 12 astronauts and include features like living areas, work areas, hygiene facilities, energy and life support systems. The design will be evaluated based on creativity, functionality, teamwork, adherence to constraints of modular components no larger than 12"x12"x16", and completing the challenge. Students will apply science, technology, engineering and math concepts to complete the project.
This document provides information and tasks related to investigating parabolic curves through the design of suspension bridges and industrial packaging. It outlines three approaches - arithmetic, procedural, and conceptual - for examining parabolas in real-life applications. Students are asked to draw bridge plans showing supports, cables, and hangers on a coordinate plane and calculate related values. For packaging, students define the three investigation approaches and derive generalized equations to calculate box dimensions and capacity based on a given variable.
The document provides course structures and syllabi for the first year B.Tech program under the R20 regulations at Jawaharlal Nehru Technological University Anantapur. It includes details of the induction program in semester 0 and the courses offered in semesters 1 and 2 for the Computer Science Engineering (Artificial Intelligence) program. The courses cover topics such as linear algebra, calculus, chemistry, C programming, data structures, physics, communication skills, and engineering workshops and laboratories. The document provides information on course codes, categories, credits, and learning outcomes for each course.
The document outlines the syllabus and curricular mapping for a Bachelor of Technology in Computer Science and Engineering program effective from the 2023-24 academic year. It includes the program outcomes (POs) and program specific outcomes (PSOs) as well as course outcomes (COs) and how they map to the POs and PSOs for specific courses in the first semester, including Mathematics-IA and Physics-I. The university syllabus is also provided for each course, listing the units of study and hours per unit.
These STEM Precalculus lessons are a continuation of previous foundations from NASAs STEM Algebra 1/2 and Geometry lessons. Students use functions, equations, and limits to express generalizations and to analyze and understand a broad variety of mathematical relationships. These Precalculus STEM lessons teach studens how to use functions to represent not only algebraic and geometric situations, but those involving probability, statistics and trigonometry, as well as calculus. Some of these precalculus lessons require students to use the Texas Instruments Nspire calculator. Also, for additional precalculus lessons, texts and videos, take a look at 165 Precalculus Videos with Texts, Exercises and Reviews.
Homework 21. Complete Chapter 3, Problem #1 under Project.docxadampcarr67227
油
Homework 2
1. Complete Chapter 3, Problem #1 under Project: Statistical Analysis in Inverse Problems
Using Simulated Data on pages 5859 of B&T. Use the same initial conditions as before from
Chapter 2.
2. Consider the logistic population growth model
x = ax bx2, x(0) = x0.
Let K = a
b
. We will examine the model for the q = (a, b, x0) parameter vectors
(i) q = (0.5, 0.1, 0.1) K = 5 (relatively flat curve),
(ii) q = (0.7, 0.04, 0.1) K = 17.5 (moderately sloped curve),
(iii) q = (0.8, 0.01, 0.1) K = 80 (relatively steep curve).
Define the regions R0, R1, and R2 as follows:
R0 is the region where t [0, 2],
R1 is the region where t (2, 12],
R2 is the region where t (12, 16].
For each parameter vector q:
(a) Let n = 15. For i = 0, sample n points from region Ri, distributed uniformly over the interval.
Find the qOLS optimized parameters for 3 different initial guesses that are far from the true
solution. (You can use the same initial guesses for all regions and all q parameter vectors).
Calculate J(qOLS) where J is the cost function of the least squares criterion. Calculate
K = a
b
. Include all results in a table.
For the optimal qOLS with the lowest cost J(qOLS), plot the solution curve for the true
solution and the estimated solution on the same plot with the sampled data points. How
do the results compare to the true solution? Determine the standard errors and confidence
intervals. Are the true parameters contained within the confidence interval?
Then repeat for i = 1. Then repeat for i = 2.
(b) Repeat problem (a) with n = 50.
(c/d) Repeat problems (a) and (b), but sampling from a uniform distribution over the entire region
t [0, 16] instead of a single Ri region.
(e) When sampling from only region Ri, does increasing the sample size improve the results?
How does this vary for i = 0, 1, 2? What if you sample over all three regions?
1
MATHEMATICAL
AND EXPERIMENTAL
MODELING OF
PHYSICAL AND
BIOLOGICAL
PROCESSES
TEXTBOOKS in MATHEMATICS
Series Editor: Denny Gulick
PUBLISHED TITLES
COMPLEX VARIABLES: A PHYSICAL APPROACH WITH APPLICATIONS AND MATLAB速
Steven G. Krantz
INTRODUCTION TO ABSTRACT ALGEBRA
Jonathan D. H. Smith
LINEAR ALBEBRA: A FIRST COURSE WITH APPLICATIONS
Larry E. Knop
MATHEMATICAL AND EXPERIMENTAL MODELING OF PHYSICAL AND BIOLOGICAL PROCESSES
H. T. Banks and H. T. Tran
FORTHCOMING TITLES
ENCOUNTERS WITH CHAOS AND FRACTALS
Denny Gulick
MATHEMATICAL
AND EXPERIMENTAL
MODELING OF
PHYSICAL AND
BIOLOGICAL
PROCESSES
H. T. Banks
H. T. Tran
TEXTBOOKS in MATHEMATICS
CRC Press
Taylor & Francis Group
6000 Broken Sound Parkway NW, Suite 300
Boca Raton, FL 33487-2742
息 2009 by Taylor & Francis Group, LLC
CRC Press is an imprint of Taylor & Francis Group, an Informa business
No claim to original U.S. Government works
Version Date: 20130920
International Standard Book Number-13: 978-1-4200-7338-6 (eBook - PDF)
This book contains information obtained from authentic a.
By the end of Year 5, students will have developed skills in the four operations, using strategies to solve problems and check answers. They will be able to identify factors and multiples, explain simple budgets, and connect 3D objects to 2D representations. Students will describe transformations of 2D shapes and compare data sets, ordering decimals and fractions on number lines. They will measure different units and calculate perimeter and area of rectangles.
The document is a daily lesson log for a Grade 11 physics class. It outlines the objectives, content, learning resources, and procedures for four class periods on the topics of:
1) Alternating current, LC circuits and their applications (Day 1)
2) Electric charge, Coulomb's law, and electric fields and flux (Day 2)
3) Reflection, refraction, total internal reflection, and applications of geometric optics (Day 3)
4) Reflection, refraction, dispersion, and polarization (Day 4)
The log provides details on the standards, competencies, examples, group activities, and concepts that will be discussed to teach the physics principles for each day.
Track 6 - Mobile Apps and computational systems as learning tools
Authors: Santiago E. Moll, Jos辿-A. Mora単o, Luis M. S叩nchez-Ruiz and Nuria Llobregat-G坦mez
The document provides a lesson plan on magnetism that includes the following:
- Three learning objectives about determining the direction of magnetic fields from permanent magnets and current-carrying wires.
- A 60-minute outline of the lesson that engages students, has them explore the topic through reading, explains key concepts, extends understanding through additional examples, and evaluates learning.
- Standards from Next Generation Science and Common Core are cited.
- References textbook correlations to provide additional resources on magnetism.
Exploratory computing: designing discovery-driven user experiencesLuigi Spagnolo
油
The document proposes a framework called FELIS for facilitating exploratory user experiences over large information spaces through iterative querying and visualization of faceted metadata. It describes a knowledge representation and query language called FelisQL and measures for estimating the relevance and correlation of features to provide feedback during explorations. The framework is demonstrated through an example interface for exploring artworks.
This lesson plan outlines a collaborative project between a 6th grade math teacher and school librarian to teach students about surface area and volume. Students will learn about solid figures through books, videos, and online resources before creating a 3D model and PowerPoint presentation applying formulas to calculate surface areas and volumes. The project will be assessed based on a rubric evaluating students' models, calculations, presentations, and self-reflections.
Physics-practical-work.ppt practical in physicspandyasohamlpis
油
Physics is the natural science of matter, involving the study of matter, its fundamental constituents, its motion and behavior through space and time, and the related entities of energy and force.[1] Physics is one of the most fundamental scientific disciplines.[2][3][4] A scientist who specializes in the field of physics is called a physicist.
Physics is one of the oldest academic disciplines and, through its inclusion of astronomy, perhaps the oldest.[5] Over much of the past two millennia, physics, chemistry, biology, and certain branches of mathematics were a part of natural philosophy, but during the Scientific Revolution in the 17th century, these natural sciences branched into separate research endeavors.[a] Physics intersects with many interdisciplinary areas of research, such as biophysics and quantum chemistry, and the boundaries of physics are not rigidly defined. New ideas in physics often explain the fundamental mechanisms studied by other sciences[2] and suggest new avenues of research in these and other academic disciplines such as mathematics and philosophy.
Advances in physics often enable new technologies. For example, advances in the understanding of electromagnetism, solid-state physics, and nuclear physics led directly to the development of new products that have dramatically transformed modern-day society, such as television, computers, domestic appliances, and nuclear weapons;[2] advances in thermodynamics led to the development of industrialization; and advances in mechanics inspired the development of calculus.
Natural philosophy
Main article: Natural philosophy
Natural philosophy has its origins in Greece during the Archaic period (650 BCE 480 BCE), when pre-Socratic philosophers like Thales rejected non-naturalistic explanations for natural phenomena and proclaimed that every event had a natural cause.[13] They proposed ideas verified by reason and observation, and many of their hypotheses proved successful in experiment;[14] for example, atomism was found to be correct approximately 2000 years after it was proposed by Leucippus and his pupil Democritus.[15]
Aristotle and Hellenistic Physics
During the classical period in Greece (6th, 5th and 4th centuries BCE) and in Hellenistic times, natural philosophy developed along many lines of inquiry. Aristotle (Greek: 畆旅凌劉了侶, Aristot辿ls) (384322 BCE), a student of Plato, wrote on many subjects, including a substantial treatise on "Physics" in the 4th century BC. Aristotelian physics was influential for about two millennia. His approach mixed some limited observation with logical deductive arguments, but did not rely on experimental verification of deduced statements. Aristotle's foundational work in Physics, though very imperfect, formed a framework against which later thinkers further developed the field. His approach is entirely superseded today.
He explained ideas such as motion (and gravity) with the theory of four elements. Aristotle believed that each of..
The document provides a project menu for a second grade space unit with activities tiered by difficulty into three columns. The first column contains more advanced activities, the second column contains on-level activities, and the third column contains novice activities. Students must complete at least three activities, which can be accessed at school during free time or at home. The activities include calculating weight on other planets, building a solar system model, writing planet advertisements, and more, and are designed to be educational while allowing choice for students of different levels.
The document provides a project menu for a second grade space unit with activities tiered by difficulty into three columns. The first column contains more advanced activities, the second column contains on-level activities, and the third column contains novice activities. Students must complete at least three activities, which can be accessed at school during free time or at home. The activities include calculating weight on other planets, building a solar system model, writing planet advertisements, and more, and are designed to be educational while allowing choice for students of different levels.
This course description outlines the Spring 2013 Design Foundations II course at the City University of New York. The course is a 6 hour studio course worth 3 credits taught by Professor Esteban Beita. The course builds on students' design skills from Design Foundations I, increasing their ability to perceive visual cues and create and interpret 2D and 3D designs using both hand and digital skills. Students will complete several projects using an iterative design process. The course is required in the design sequence and has prerequisites of Design Foundations I and Visual Studies I with grades of C or higher. Attendance may not exceed 10% absence. The course will include lectures, presentations, workshops and critiques. Students will be graded on several projects,
This document provides a draft syllabus for a course on Communicative English for undergraduate engineering students.
The syllabus is divided into 5 units which cover topics like grammar, vocabulary, reading, writing and listening skills. Specific chapters from two textbooks are prescribed for detailed and non-detailed study in each unit. The objectives of the course are to enable students to communicate effectively in English for academic and social purposes and to enhance their language skills. Assessment will include exercises from textbooks, classroom activities and discussions on materials like newspaper articles. The expected outcome is that students will develop communicative competence through practice of language skills.
This document provides the technology standards extracted from the Common Core State Standards for English Language Arts. It includes the standards for integrating and evaluating content presented in diverse formats for literature from grades K-12. It also includes standards for analyzing the structure of informational texts, including how text features contribute to the overall meaning, from grades K-12. Special thanks is given to the Fresno County Office of Education for their work compiling these technology standards.
This document provides a design challenge for students to create a prototype model of a space colony on Mars. Students will work in teams to design modular components for living and working areas that can be transported to Mars and assembled. The space colony must support 12 astronauts and include features like living areas, work areas, hygiene facilities, energy and life support systems. The design will be evaluated based on creativity, functionality, teamwork, adherence to constraints of modular components no larger than 12"x12"x16", and completing the challenge. Students will apply science, technology, engineering and math concepts to complete the project.
1. McHenry High School Dist. 156 Integrated Unit
Name of Teachers:
Erin Grant
Tim Mosbach
Stuart Walker
Subject Areas:
English
Social Studies Honors U.S.
History
Math Honors Pre Calculus
Length of Unit: 5 weeks
Jan. 4th
Feb. 10th
, 2012
Presentation on Feb. 11th
,
2012
Description of the Integrated Unit:
This unit is designed to introduce generations together through the medium of modern
technology in hope of building a stronger sense of community. Modern technology, over the
centuries, has grown in such a way to make communication much more efficient. Because of
this, we are introducing students to the history of communicationfrom when it began to where
it currently isand then we will utilize that knowledge of its benefits to help bridge the gap of
generational discrimination. By learning the capabilities of modern technologies, students will
be able to put them into perspective by comparing them to earlier methods of communication and
thus understand how far weve come and what is possible within the realm of communication.
For our 5-week unit, our Junior level students will attempt to bridge that gap with the Baby
Boom Generation by way of a culminating presentation of the technology of modern
communication at Del Webbs Sun City in Huntley, Illinois.
Essential Question of the Integrated Unit:
How does technology Qinect generations?
Objectives for Students:
ENGLISH:
Examine the characteristics of a play
o Students will be able to define and analyze theme, dialogue, narrative, and plot
o Students will be able to analyze characters and setting
o Students will be able to define setting, stage movement and rhythm.
Examine the qualities of great communication
o Students will be able to define communication and the elements of proper
communication
o Students will be able to analyze the importance of communication
o Students will be able to present proper communication through presentations and
group work
Examine the characteristics of the persuasive essay
o Students will be able to define the elements of the persuasive essay
2. o Students will be able to showcase their abilities in outlining and research
o Students will be about to portray their thoughts in a persuasive essay
MATH:
Applications to Radio (early 20th
century one-way communication)
Identify general periodic functions and periodic circular functions and their properties
(period, frequency, phase, amplitude, wavelength and their physical dimensions) in both
written function and graphical form.
Determine properties of a given periodic circular function.
Use order of magnitude to compare numerical quantities.
Examine and understand the radio frequency spectrum described in terms of frequency
and wavelength. Use order of magnitude to compare frequencies and wavelengths.
Use the properties of periodic functions and trigonometric identities to derive a
mathematical expression for an amplitude-modulated (AM) wave. (more difficult
problem)
Use specific numeric values to plot the graph of the AM wave on a computer using
mathematical software such as MATLAB or possibly on their graphing calculators.
Relate graph features to corresponding parts of the AM wave expression.
Identify amplitude modulated (AM), frequency modulated (FM), and phase modulated
(PM) radio waves by examining both their graphs and mathematical representations.
(Instructor provides graphs and mathematical expressions)
Find a valid approximate expression for radio range to horizon given simplifying
assumptions and a geometric diagram of the problem. Explain in writing, the logic you
used to find the expression.
Demonstrate mathematical understanding of a light-year
Use scientific notation in finding out how long it takes a radio signal to travel from earth
to moon, to sun, to another star, e.g. Alpha-Centauri. (mini- research project)
Applications of exponential and logarithmic functions (19th
and early 20th
century applications.
Preps students for using slide rule)
Using calculator, compute values of exponential and logarithmic functions given
numerical inputs.
Solve problems involving practical applications of exponential and logarithmic functions
such as exponential growth of a bacteria sample, exponential decay of radioactive
material, calculation of earthquake magnitude using Richter scale, and electromagnetic
power computations using decibels. (Note to teacher: This will be a review of exponential
and logarithmic functions, which students learn in Algebra II. The applications may be
new to them though.)
Using a slide rule (late 19th
to mid- 20th
century computing technology)
3. Describe how a slide rule is designed.
Use a slide rule to multiply and divide numbers, find numerical values of logs and
exponents, and find roots of positive numbers.
Compare different methods of finding the square root of a positive number that is not a
perfect square. (Calculator, slide rule, by hand using Herons iterative method).
RADAR antennae and telescope lens shapes (first radar-1930s, first telescopes-17th
and 18th
centuries)
Identify graphically how to find conic sections, a.k.a. two dimensional cross sections
(circle, ellipse, hyperbola, parabola), from the basic 3 - dimensional double cone
configuration.
Identify equations of conic sections written in standard form.
Calculate/find characteristics associated with each conic section, (e.g. for parabola find
vertex, focus and directrix.)
Graph conic sections by hand and with graphing calculator.
Show graphically, using the characteristics of a parabola and of a hyperbola, how light
rays or microwave rays reflect off of these surfaces. (Teacher will demonstrate how
certain waves can be shown to propagate as rays.)
Explain in writing with the assist of graphical depiction why the parabola was used in the
design of some early RADAR antenna dishes. Cite references. Use knowledge of
reflection pattern of rays from a parabola. (mini-research project)
Explain in writing with the assist of graphical depiction why the hyperbola was used in
the design of telescope lenses. Cite references. Use knowledge of reflection pattern of
rays from a hyperbola. (mini-research project)
Mathematical basis for digital computer and portable digital communication device operations
( digital computer-1960s, portable digital comms-1980s)
Use binary (base 2), (base 8), and hexadecimal (base 16) number systems in
computations and explain practical uses for each. (mini-research project)
Convert a number from base 10 to base 2, base 8 and base 16 and vice-versa.
Perform addition and subtraction in base 2, base 8, and base 16.
Learn the definitions of bits and bytes. Understand computer and portable digital
communication device memory storage capacity in terms of bits and bytes.
Measure central processing unit (CPU) speed and define what the units of measurement
are.
Use order of magnitude to compare the processing speed of ENIAC, the first electronic
computer built in 1946, to that of a modern portable digital communication device such
as an Android, to that of a desktop computer, and to that of a modern supercomputer.
(mini- research project)
4. Math Resources:
Source: Pre-Calculus Mathematics, Crosswhite, Hawkinson, and Sachs, 1976.
For periodic functions, trigonometric identities, exponential and logarithmic function
application problems, conic sections.
Source: Howstuffworks.com
Video of how simple radio works, list of technologies that use radio waves, radio
geometric distance to horizon problem, slide rules.
Source: Winbuyer.com--$7 slide rules
Source: Wikipedia
Electro-magnetic spectrum, Amplitude modulation (AM) wave expression.
Source: http://www.tpub.com/neets/book18/81c.htm
RADAR parabolic reflectors
Source: http://www.w1ghz.org/antbook/conf/Multiple_reflector_antennas.pdf
Radar and telescope lens reflectors
HISTORY:
Students will be able to understand origins of various communication technologies (i.e.-
phone, film, media, video games, etc.) and learn how they have made communication
more efficient.
Students will be able to identify the difference between a primary resource and a
secondary resource.
Students will be able to write a persuasive argument.
Students will be able to develop social skills in a group setting through the various group
work activities presented in the classroom.
Students will be able to use the Internet for purposes of finding primary resources.
Students will be able to read resources for understanding and for apply them in arguments
when taking a position on a topic.
Students will be able to cite their research.
Students will be able to integrate media into a presentation.
Students will be able to use technology to assist in writing projects.
Common Core/College Readiness Standards Per Subject Area (List all that apply)
English:
CC.11-12.R.L.1: Key ideas and Details
English:
Topic Development in Terms of Purpose and
Focus
5. CC.11-12.R.L.7: Integration of Knowledge and
Ideas
CC.11-12.W.1.c: Text types and purposes
CC.11-12.W.7: Research to build and present
knowledge
CC.11-12.W.HST.1.d Text types and purposes
20: Identify the central idea or main topic of a
straightforward piece of writing
Determine relevancy when presented with a
variety of sentence-level details
33-34: Determine whether a complex essay has
Accomplished a specific purpose
Add a phrase or sentence to accomplish a
complex purpose, often expressed in terms
of the main focus of the essay
35: Consider the need for introductory
sentences or transitions, basing decisions
on a thorough understanding of both the
logic and rhetorical effect of the paragraph
and essay
Sentence Structure and Formation
20: Recognize and correct marked disturbances
of sentence flow and structure (e.g.,
participial phrase fragments, missing or
incorrect relative pronouns, dangling or
misplaced modifiers)
30: Correctly use reflexive pronouns, the
possessive pronouns its and your, and the
relative pronouns who and whom
Ensure that a verb agrees with its subject in
unusual situations (e.g., when the subjectverb
order is inverted or when the subject is
an indefinite pronoun)
Main Ideas and Author's Approach
20-23: Infer the main idea or purpose of
straightforward paragraphs in uncomplicated
literary narratives
Understand the overall approach taken by an
author or narrator (e.g., point of view, kinds of
evidence used) in uncomplicated passages
Locate important details in uncomplicated
passages
Make simple inferences about how details are
used in Passages
6. 24-27: Identify a clear main idea or purpose of
any paragraph or paragraphs in uncomplicated
passages
Infer the main idea or purpose of straightforward
paragraphs in more challenging passages
Summarize basic events and ideas in more
challenging passages
Understand the overall approach taken by an
author or narrator (e.g., point of view, kinds of
evidence used) in more challenging passages
Locate important details in more challenging
passages
Locate and interpret minor or subtly stated
details in uncomplicated passages
Discern which details, though they may appear
in different sections throughout a passage,
support important points in more challenging
passages
Math
N.Q.1, 2, 3
A.SSE.1, 1a, 1b, 2, 3
A.CED.1, 2
A.REI.1,4, 10, 11
F.IF.1, 2, 3, 4, 5, 7, 7e, 8, 8b
F.BF.1, 1a, 1b, ,3, 5
F.LE.1, 4, 5
F.TF.2, 3, 4, 5, 9
G.SRT.8
G.GPE.2, 3
G.GMD.4
G.MG.1
Math
13-15: Perform common conversions (e.g.,
inches to feet or hours to minutes).
16-19: Substitute whole numbers for unknown
quantities to evaluate expressions.
20-23:
-Exhibit knowledge of elementary
number concepts including rounding.
-Perform straightforward word-to-symbol
translations.
- Locate points in the coordinate plane.
- Exhibit knowledge of slope*
- Use geometric formulas when all
necessary information is given.
- Evaluate quadratic functions, expressed in
function notation, at integer values.
24-27:
7. - Solve multistep arithmetic problems that
involve planning or converting units of
measure (e.g., feet per second to miles per hour).
- Work with numerical factors
-Work with scientific notation
-Work with squares and square
roots of numbers
-Work problems involving positive
integer exponents*
-Work with cubes and cube roots
of numbers*
-Determine when an expression is undefined
- Determine the slope of a line from points or
equations *
-Match linear graphs with their equations *
28-32:
- Interpret and use information from
figures and graphs
-Apply rules of exponents
- Manipulate expressions and equations
- Interpret and use information from graphs in
the coordinate plane.
- Recognize special characteristics of
parabolas and circles (e.g., the vertex of a
parabola and the center or radius of a circle)
- Use the Pythagorean theorem
33-36:
-Analyze and draw conclusions based on
information from figures and graphs
- Draw conclusions based on number concepts,
algebraic properties, and/or relationships
between expressions and
numbers
-Exhibit knowledge of logarithms
- Write expressions that require planning and/or
manipulating to accurately model a situation
-Write equations that require planning,
manipulating, and/or solving.
- Identify characteristics of graphs based on a set
of conditions or on a general equation such as y
= ax族 + c
-Solve problems integrating multiple algebraic
and/or geometric concepts
-Analyze and draw conclusions based on
8. information from graphs in the coordinate plane
- Draw conclusions based on a set of conditions
-Solve multistep geometry problems that involve
integrating concepts, planning, visualization,
and/or making connections with other content
areas.
- Use scale factors to determine the magnitude
of a size change.
- Use trigonometric concepts and basic identities
to solve problems
-Exhibit knowledge of unit circle trigonometry
-Match graphs of basic trigonometric functions
with their equations.
History - Reading
Key Ideas & Details:
Cite strong and thorough textual
evidence to support analysis of what the
text says explicitly as well as inferences
drawn from the text.
Craft & Structure
Analyze and evaluate the effectiveness
of the structure an author uses in his or
her exposition or argument, including
whether the structure makes points clear,
convincing, and engaging.
Determine an authors point of view or
purpose in a text in which the rhetoric is
particularly effective.
Integration of Knowledge & Ideas
Integrate and evaluate multiple sources
of information presented in different
media or formats (e.g., visually,
quantitatively) as well as in words in
order to address a question or solve a
problem.
Analyze seventeenth-, eighteenth-, and
nineteenth-century foundational U.S.
documents of historical and literary
significance.
Range of Reading & Level of Text Complexity
Read and comprehend literary nonfiction
Social Studies Reading
Main Ideas and Author's Approach
Supporting Details
Generalizations and Conclusions
Meanings of Words
Social Studies Writing
Expressing Judgments
Focusing on the Topic
Developing a Position
Organizing Ideas
Using Language
9. in the grades 11CCR text complexity
band proficiently.
History Writing
Text Type & Purposes
Write arguments to support claims in an
analysis of substantive topics or texts,
using valid reasoning and relevant and
sufficient evidence.
Write informative/explanatory texts to
examine and convey complex ideas,
concepts, and information clearly and
accurately through the effective
selection, organization, and analysis of
content.
Production & Distribution
Produce clear and coherent writing in
which the development, organization,
and style are appropriate to task,
purpose, and audience.
Develop and strengthen writing as
needed by planning, revising, editing,
rewriting, or trying a new approach,
focusing on addressing what is most
significant for a specific purpose and
audience.
Use technology, including the Internet,
to produce, publish, and update
individual or shared writing products in
response to ongoing feedback, including
new arguments or information.
Research and Build Present Knowledge
Conduct short as well as more sustained
research projects to answer a question
(including a self-generated question) or
solve a problem.
Gather relevant information from
multiple authoritative print and digital
sources, using advanced searches
effectively.
Draw evidence from literary or
informational texts to support analysis,
reflection, and research.
10.
History Speaking & Listening
Comprehension & Collaboration
Initiate and participate effectively in a
range of collaborative discussions (one-
on-one, in groups, and teacher-led) with
diverse partners.
Evaluate a speakers point of view,
reasoning, and use of evidence and
rhetoric, assessing the stance, premises,
links among ideas, word choice, points
of emphasis, and tone used.
Presentation of Knowledge of Ideas
Present information, findings, and
supporting evidence, conveying a clear
and distinct perspective, such that
listeners can follow the line of
Make strategic use of digital media (e.g.,
textual, graphical, audio, visual, and
interactive elements) in presentations to
enhance understanding of findings and
reasonings.
History Language
Conventions of Standard Language
Demonstrate command of the
conventions of standard English
grammar and usage when writing or
speaking.
Demonstrate command of the
conventions of standard English
capitalization, punctuation, and spelling
when writing.
General In-class Activities/Strategies per Subject Area:
English:
Reading aloud and Acting in front of the class
Class discussions on themes, ideas,
Computer lab for research
In class peer editing workshops
11. Weekly journals
Math Activities:
Computer lab graph plotting and animation, computer lab website research, showing of
explanatory videos, class discussion and brainstorming on how to solve certain difficult
problems, short instructor lectures/explanations giving hints on how to attack difficult problems,
group and individual solving of problems from text books or handouts from instructor (groups of
distributed talent will sometimes be assigned by instructor so that students can help other students
out), confidence builders[ (1) students solve problems on board and verbally explain to class
their method and logic with other student and instructor help, if necessary, and (2) practice in
clearly explaining their method and logic used to solve a problem in writing by individual
journaling], bell ringer warm up problems, entrance, and exit slips to check student
understanding , occasional change of pace games (e.g., buckets gamegroups solve a
problem; if they get it right, then each member of group gets to shoot ball from chosen distance
into garbage can for points. Group with highest point total wins).
Math Strategies: Students keep logic and reasoning journals; students explain logic and
reasoning verbally; instructor reinforces the connection between the math and the technology;
students verbally and in writing explain the basic connection between the math and its related
technology; instructor facilitates placing students learning and knowledge in the context of the
essential question, that is, having students compare our modern communications and computing
technology to what was available to earlier generations.
History:
Group work
o Quill pen, typewriter, computer project
o Finding a radio program
o Analyzing smart phone video recording of interview
o Creating instructions on how to use Facebook, Skype, Smart Phone
o Making a video game in class that demonstrates good education value, connecting
generations together, community building
o Creating a poster on an activist
Use computer for internet research
o Find resources using sites such as Google Books and Library of Congress to find
primary resources.
o Find a old time radio program
o To make instructions on how to use Facebook and Skype
Classroom discussion
o From Bell Ringers (YouTube clips, cartoons, trivia questions)
o Pre-assessment prior to a lesson
o Post lecture
o Thoughts and feelings regarding Civil Rights movement, Gay Rights movement,
Occupy movements. Key lesson/strategy here is that a reason for discrimination is
the lack of knowledge that someone has of the people they are discriminating
12. against. Communication is a way to disseminate knowledge of those you dont
know. And with modern technology you can do it in a much more efficient
manner, even when it comes to generational discrimination.
Watching videos
o YouTube clips
o Video presentations by students
o Various clips during discrimination section
Writing in class
o Journal reflection
o To demonstrate understanding
o To create instructional sheet to use Web sites.
In class Artwork
o To create posters during discrimination section
Formative Assessment Descriptions per Subject Area (Checking for understanding):
English:
Quizzes and a test on Death of a Salesman and the characteristics of a play
Mini-project presented in front of the class
Persuasive paper
Weekly journals
Math:
Weekly quizzes on assigned problems from book or handouts or on specific topics to
assess students understanding of concepts and problem solving skills.
Mini-research projects that (1) assess the students ability to apply mathematical concepts
learned in class or via homework to a new situation, (2) assess the students ability to
connect math concepts to its associated technology and (3) assess the students ability to
write clearly about mathematical and technological topics.
In class discussion that checks student participation and assessment of whether students
are using the correct vocabulary related to each topic.
Periodic checking of journal entries to assess students progress in learning to concisely
explain their logic and reasoning in solving problems.
Do Now activities that will either prime the knowledge for the next class period or will be
a review of topic(s) covered the previous class period. This is to check that no student
falls behind.
Homework assignments from textbook, worksheets, or in the form of open-ended
questions to be used as entry slips.
History:
Weekly quizzes
Journals/reflections to check for understanding for certain sections
In class discussion
In class presentations
13. o Quill pen, typewriter, computer Del Webb presentation
o Present a Revolutionary War era letter in class
o Radio program presentation
o Interview someone from an different generation
o Poster of activists
o Clearly written instructions on how to (1) use Facebook, (2) start a Skype
conversation (or any other video chatting service like Google Talk), and (3)
common uses of a smart phone that also includes popular, helpful apps and other
tips and tricks.
Homework
Mini-Research Projects & Position Papers
o Go to a school-related event and write a letter about it to the teacher, documenting
the event.
o Group project, turn in your interview of a person from a different generation and
the analysis of it. Determine if you agree with interviewee and why or why not.
o Video Game Position Paper, argue why your game you chose is a game everyone
should have. Cite specific reasons such as educational content, community
building, etc. (see included artifacts/articles on video games and their benefits to
senior citizens)
o Activist 2-3 page paper Basic info on an activist who has worked to end some
form of discrimination and what kind of communication he or she used to help
bring about change (how did he or she get all those people on the same page).
Common Assessment Description (or Summative Assessment):
Portfolio for each student that will include a section for each subject area. Each section will be
graded by subject teacher and will be worth 25% of student grade for the unit. Portfolios will also
include a copy of the first days brainstorming notes about the EQ and the students final
reflection about the EQ once the Service Learning Component is complete. Portfolios are due
Tuesday, Feb 14, 2012.
English portfolio will include:
Journal Entries
Mini Project on how the media attempts to bridge communication gap
Persuasive paper
Quizzes
Mini project on how you communicate
Reflection after "Death of a Salesman"
Math portfolio will include:
Mini - research projects
Journal entries
Copies of computer graphs and manually drawn graphs with explanations
14. Definitions of important mathematical or technological terminology
Re-worked quiz problems that students got wrong
Based on what was covered during the unit and on the EQ, compare modern
communications and computing technology to what was available to earlier generations.
History portfolio will include:
Mini-research/Position papers discussed above
Journal entries
Presentation materials
Del Webb brochures used during 1st
presentation
Write up of your groups video game you made up
Write up of your radio program you analyzed during class
CD of recorded interview during the unit
Quizzes that were returned
Service Learning Component:
Does this Integrated Unit have a Service Learning Component: YES
Describe the Service Learning Component: Students will present modern technology of
communication to the active seniors of Del Webbs Sun City in Huntley, IL on Saturday, Feb 11.
We feel that this strategy, of using something that our students are interested in as a means of
meeting and connecting with the Baby Boom generation, is just one way that we can build a
stronger and better community. Furthermore, we also feel that just being able to simply
communicate and learn more about each other, will help diminish any form of generational
discrimination that may exist.
Prior to this presentation students will use one whole class period each from English, Math and
Social Studies during weeks 3, 4, and 5 to work on their presentations. The SLC will be worth
25% of their grades.
This unit will consist of 3 separate group presentations to those at Del Webb who have
voluntarily signed up to attend this presentation that will have been coordinated between the
teachers and a representative at Del Webb. The three group presentations are as follows:
1. Internet Communication Presentation: This will include students showing the active
seniors of the Del Webb community how and why to use Facebook, Skype (or any other
video chatting service like Google Talk), email, YouTube, and any other areas the
students feel are necessary. Along with this, the students will also give out the instruction
sheets that they created during the history unit to help them login in the future.
2. Video Game Play: There is a growing community of people using the interactive video
gaming systems such as Wii, X-Box Kinect and PlayStation Move, and older generations
are no exception. For this presentation, students will demonstrate a few games of their
choosing like Bowling, educational, mind-stimulating games, and game that require a
15. little more movement than other game. Also as part of this presentation, other
communication features such as chatting (with headphone) and use of video component
(Kinect).
3. Smart Phone Demonstration: Students will showcase how to use a smart phone and go
over the most common functions of them, including texting, taking photos and videos,
accessing the internet, ability to email, post on Facebook, Twitter, etc. Some even have
the ability to video chat. Also, as part of this demonstration, they will go over popular
and helpful apps and how to get them. Even if some people at Del Webb dont have a
smart phone, it will be a useful for them to at least see how they work and to learn the
capabilities of them.
Also, during the presentation, students must give out their contact information to those attending,
and request that if anyone has future questions, that they send them utilizing any form of modern
communication that the students presented on.
Walker Reflection:
Erin Grant (English) and Tim Mosbach (history) were the other members of my group. We had
difficulty coming up with an Essential Question at first. In retrospect, Im not sure why, given
Tims propensity for on the spot creativity. Eventually we narrowed it down via email
exchange and occasional meetings. The face-to-face meetings were hard to come by given
everyones schedule. Once we finalized our EQ, the design of the Service Learning Component
came pretty easily, I thought.
Our topic was definitely ripe for mathematical investigation at a level, I think, that was
appropriate to sufficiently challenge my honors pre-calculus students. In developing my math
objectives, I tried to be as specific as possible, so that I could estimate what material relevant to
the EQ I could cover in 5 weeks. I also took into consideration to cover topics that included some
of the College Readiness Standards and ISBE Common Core Standards. I pared down my list of
objectives because I thought it was too ambitious. Maybe it still is, but I dont really have a good
idea yet of what students in an honors pre-calculus class can handle as a reasonable challenge. I
would just have to adjust as I went along. Furthermore, I dont know if all of our objectives
(math, english, history) taken together would be too much for our students to handle in 5 weeks.
In developing lesson plans, I spent a lot of time (probably too much time) to ensure continuity
in my 5 consecutive plans for the first week of the unit, including estimates of how long each
16. instructional activity would take. Im sure with more experience and a better knowledge of my
students capabilities, my lesson planning would go faster. Finally, regarding formative
assessment, I used this in my lesson planning, but I just realized that I did not include it as a
small percentage of my students final subject area grade.