Battleships and Mines HSG.GPE

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What better way to learn math than by playing Battleships and Mines!!!

This interactive activity will indulge your students into creating their own battleships and mines using geometry. Students will generate their battleships and mines using equations of circles that will be graph using GeoGebra. GeoGebra is a free and useful software where students can create circles with just two clicks! No more “I do not want to graph this!” With GeoGebra students will be able to fully engage in the activity while practicing the properties of the equation of a circle, without the hassle of graphing it. GeoGebra not only does it have functions that can be incorporated with algebra and calculus curriculum, but it comes at no cost to schools, teachers and students.

battleships-lesson-geometry-m325

 

Exploration of the Euler Line using Geogebra- HSG.CO.D.12

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This lesson focuses on the use of modeling in Geogebra to help students explore the concept of the Classical Triangle Centers (centroid, orthocenter, and circumcenter) and how they relate to the Euler Line. In the activity for this lesson, students will be asked to make constructions of triangles using Geogebra, and manipulate the vertices of the triangles to answer a series of questions relating to the centroid, orthocenter, and circumcenter. They will also be asked questions that will help them to further explore the relationship between these three centers of a triangle.

Lesson and Activity Link: euler-line-modeling-lesson-plan

HSG.CO.A.3, HSG.CO.A.4 and HSG.CO.A.5: Rotation, reflection, and translation

This learning progression is writing for a 10th -11th grades Geometry class.  The textbook for this class is CORD Geometry 1 Learning in Context 4th edition. For this textbook student cannot access it only the teacher can. This book is use a guide to making the class run. The book is often used to make notes for the student and worksheets.

Common Core State Standard cluster:

Experiment with transformations in the plane

CCSS.MATH.CONTENT.HSG.CO.A.3
Given a rectangle, parallelogram, trapezoid, or regular polygon, describe the rotations and reflections that carry it onto itself.
CCSS.MATH.CONTENT.HSG.CO.A.4
Develop definitions of rotations, reflections, and translations in terms of angles, circles, perpendicular lines, parallel lines, and line segments.
CCSS.MATH.CONTENT.HSG.CO.A.5
Given a geometric figure and a rotation, reflection, or translation, draw the transformed figure using, e.g., graph paper, tracing paper, or geometry software. Specify a sequence of transformations that will carry a given figure onto another.

Students will be demonstrate the following Common Core best mathematical practices:
MP4: Model with mathematics MP6: Attend to precision, MP7: Look for and make use of
MP6: Attend to precisionMP7: Look for and make use of structure.
MP7: Look for and make use of structure.

In this learning progression, the teacher plans the lessons to have peer help each other as they work on the worksheets.

edtpa lesson plan

learning progression for edtpa

High School Geometry: Conditions for Parallelograms

parallelogram art

This learning progression, that can be accessed through the link below, was designed primarily for 9th grade students in an honors geometry course. The Common Core State Standards that it will be satisfying are the following: HSG.GPE.B.4 and HSG.GPE.B.5. While the math practices that we will be implementing are: MP1, MP2, and  MP3

The primary instructional methods will be the Socratic Method and Direct Instruction. Students will have to take this information and apply it to mathematics problems that are given to them. As they work on problems the teacher will walk around and assess their work. The students will be allowed to talk to their table partners to check answers and tutor one another. As they are doing this the teacher will insert themselves into conversations that are headed the wrong direction, coming to a lull when it is clear one of both of the students is still lost or when the students are simply getting off task. An example of the types of questions the students will be working on can be seen at the bottom of this article.

After the students complete their class work they will be given an exit task to complete before the day is over. The exit task will include Benchmark Assessments that will show whether or not the students learned what they were supposed to learn that day. Once again example problems can be seen below.

instructional pic                    exit task final pic

Instructional Task                                   Assessment Task

Learning progression for TPA

ƨnoiƚɔɘlʇɘЯ : Reflections

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Can You See It : ƚI ɘɘƧ uoY nɒƆ

This learning progression will be taught in a 10th grade High School Geometry classroom and the following three Common Core State Standards will be used as goals: HSG.CO.A.3, HSG.CO.A.4 and HSG.CO.A.5. Additionally, the mathematical practices that align with this learning progression are the following: MP5 Use appropriate tools strategically, MP7 Look for and make use of structure, and MP8 Look for and express regularity in repeated reasoning. The textbook this class uses is CORD Geometry 1 Learning in Context 4th edition. Specifically, I will be using chapter 4 on polynomials and factors.

Pyramid
Students have previously been introduced to patterns and relationships between two things. For example, in previous classes they have discussed series of geometric functions and more recently similarities in triangles. Specifically, students have worked with distances on the coordinate plane is relation to the origin and a point and how this constant equidistance moved around the origin would rotate a point which was a topic discussed in chapter 3. In this learning progression students will be once again looking at these rotations of points with the larger and focused picture of rotations, reflections, and translations of various geometric figures. The first skill and portion of this lesson will be to examine how to manipulate an object/shape on the coordinate plane through reflections that will maintain its original form. The various reflections, which will depend on the geometric object used at the time, will include over the y-axis, x-axis, y=x and y= -x. The students will practice this process with a variety of shapes and discover which shapes can or cannot use one of the above mentioned reflections. For example, a square can be both reflected across the y= x and y= -x, but a rectangle cannot. The second lesson will then discuss rotations of the same geometric objects and once again help students investigate which rotations certain shapes can and cannot rotated x number of degrees. The third lesson in this progression will be to consider translations of objects so as to still maintain shape, size, and angles. The third lesson will also help clarify the previous topics with practice with all of the movements as well as help students understand notation for the actions, like T(2, 3) referring to a translation of all vertices of an object to the right by 2 and vertically by 3.

Thus, this learning progressions is all about helping students see both with physical pictures and in their minds eye the mirrors, rotations, and translations found everywhere in mathematics and life. As can bee seen from the pictures above reflections are as common as looking into a pool of water. Therefore, modeling such actions with mathematics can help students understand its importance to our everyday life and aspiring to teach this beautiful concept as a guided lesson and at a pace that will not overwhelm any of our students.

High School Geometry 1 Learning Progression edTPA

edTPA Reflections Worksheet

Lesson Plan Transformations_Reflections

CCSS Cluster: HSG Congruence Learning Progression

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This learning progression would take place in a 10th/11th grade Geometry class and is aligned to multiple Common Core State Standards regarding “Congruence” – specifically HSG.CO.B.6, HSG.CO.B.7, and HSG.CO.B.8. This geometry courses uses the Holt Rinehart Winston Geometry textbook aided with an online resource, TeachersPayTeachers – All Things Algebra. This specific learning progression aligns directly with the TeachersPayTeachers worksheets. The guided notes and assignment are taken directly from this online resource.

 

Learning Progression – edTPA

High School Geometry: Special Triangles

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This learning progression was designed primarily for 9th grade students in an honors geometry course. The Common Core State Standards that it will be satisfying are the following: HSG.SRT.B.4, HSG.SRT.B.5, HSG.SRT.C.6. While the math practices that we will be implementing are: MP1, MP2, and  MP8.

At the very beginning of the lesson progression the students will be guided through deriving the common ratios found in 30, 60, 90 triangles using the Socratic method. After this, by actively implementing the information they just derived, students will able to assimilate it. The students will all receive white boards and they will be told to draw a 30, 60, 90 triangle on their board. They will then be given various side lengths and asked to find the lengths of the missing sides.Next, the same possess will be used to teach the students about 45, 45, 90 triangles.

For more details, see the following link:

Learning progression

Pythagorean Theorem/Trigonometric Ratios

At one point in every students educational career, they encounter the Pythagorean Theorem and the Trigonometric Ratios. A learning progression must be developed in order to teach the students both concepts and understand how they connect.

The learning progression that will be shown in this post will be about the Pythagorean Theorem and the trigonometric ratios for an Algebra 1 course. For the learning progression, the first cluster that will be used is: Understand and apply the Pythagorean Theorem. The Common Core Math Standards that fall under it are: CCSS.MATH.CONTENT.8.G.B.6: Explain a proof of the Pythagorean Theorem and its converse. Also, CCSS.MATH.CONTENT.8.G.B.7: Apply the Pythagorean Theorem to determine unknown side lengths in right triangles in real-world and mathematical problems in two and three dimensions.

The second cluster is: Define trigonometric ratios and solve problems involving right triangles. The Common Core Math Standards are the cluster is: CCSS.MATH.CONTENT.HSG.SRT.C.6: Understand that by similarity, side ratios in right triangles are properties of the angles in the triangle, leading to definitions of trigonometric ratios for acute angles. Also, CCSS.MATH.CONTENT.HSG.SRT.C.8: Use trigonometric ratios and the Pythagorean Theorem to solve right triangles in applied problems.*

The Mathematical Practices used for the learning progression are: MP1: Make sense of problems and persevere in solving them. MP4: Model with mathematics. MP5: Use appropriate tools strategically. MP6: Attend to precision.

In addition, the students will be assessed informally and formally for each lessons of the learning progression. The students will asked various questions to check for understanding throughout each lesson. The students will be following along in the classroom and they will be doing worksheets to demonstrate and practice their skills. One of the assignments they will be given is on a worksheet of trigonometric ratios. The students will be calculating the six trigonometric ratios based on the values of the sides of a triangle. In addition, exit tasks will be given out for each lesson as well. The exit tickets will be feedback to the teacher, which will help organize the lesson for the next day. For instance, for day one, the students will be learning about the Pythagorean Theorem and be applying the theorem to solve problems. The problem students will work on for the exit task is: “Find the length of a ladder that is 12 meters and is leaning against a 10 meter building. How far is the ladder from the building?” Shown below is a sketch of the building, the grass, and the ladder. This formative assessment of an exit task will help the teacher gain insight on the level of mastery the students are at by the end of the leson.

Ladder

In the end, the Pythagorean Theorem and the trigonometric ratios are important concepts for students to learn. The assessments, benchmarks, exit tasks, and warm-ups must be organized and presented in an appropriate manner to maximize learning for the students in the classroom.

Below is the learning progression:

Pythagorean Theorem Learning Progression

Ice Cream Volume-HSG.GMD.A.3

Whenever I eat ice cream there’s always one thing that’s on my mind: MATH.  I mean, who doesn’t think about math when they eat ice cream.  While of course ice cream Picture Problemcones are a great snack on a summer day, they also pose some great potential problems for a high school geometry class.  Teachers might use a picture like this to have students solve several problems.  Students could find exactly how much ice cream can actually fit in a cone by finding the volume.  This problem provides a great opportunity for students to do this practically in class too, and enjoy a snack while they do it.  Students might also find compound volumes of cones and sphere’s by putting more ice cream on top of the cone.

 

Volume in Sports

 

balls

Mens Basketball diameter 238.8mm

Soccer ball 110mm

Volleyball 105 mm

Baseball 37mm

Cricket 36mm

Tennis 33mm

Golf 12.35mm

Squash 20mm

Most sports throughout history have been played with some manipulated object, and most popular of all, is the ball. The object of this activity would be to compare the volumes of a variety of different sports balls. We can find the ratios between the different sized sports balls and find equations to represent the relationships between their volumes.

volume

For example, the volume of a soccer ball is 5575279.67mm3, and the volume of a squash ball is 33510.3mm3, and the ratio of squash balls to soccer balls is 116.375:1, or perhaps that a soccer ball could hold 116 squash balls (theoretically).

We could also find equations of how many golf balls and squash balls combined would fit into a basketball

(x*Vsquash)+(y*Vgolf)≤Vbasketball

  CCSS.MATH.CONTENT.8.G.C.9

Know the formulas for the volumes of cones, cylinders, and spheres and use them to solve real-world and mathematical problems.