Abstract
				
				
				The focus of this research project is to 
				identify best practices in eighth-grade mathematics teaching and 
				learning. Our methodology is to identify school systems who face 
				high poverty, yet whose students reach high levels of 
				achievement as indicated by the Georgia Milestone Assessment 
				System (GMAS). Within the 29 Georgia counties with the highest 
				poverty rates in the state, we identified four counties with the 
				highest percentage of students performing proficient and above 
				on the GMAS. Teacher survey results at the high-performing 
				middle schools in these counties reveal the importance of 
				continuous assessment, grouping strategies, high expectations, 
				technology use, strong curriculum, and a variety of 
				instructional methods. In addition, the surveys indicate that in 
				order to meet the specific needs of students in poverty, schools 
				need to: (1) address students' nutritional needs, (2) provide 
				supplies to students, (3) seek out families in need and 
				immediately provide help, (4) demonstrate to students that you 
				care about them, (5) increase the curriculum at school in order 
				to decrease homework expectations, and (6) obtain external 
				technology grant.
				
				From 2003 to 2015, the state of Georgia has 
				continuously closed the gap with the nation in 8th-grade math 
				performance as measured by the National Assessment of 
				Educational Progress (NAEP). During the past 2 years, this 
				improvement has stalled. So, how can we start narrowing the 
				performance gap again?
				
				One way of improving overall performance is 
				to identify low performing groups of students and determine how 
				to better reach them. Children living in poverty are more at 
				risk of underperforming when compared to their counterparts not 
				living in poverty. Research conducted by the NAEP showed 
				nationally that only 18% of 8th grade math students who were 
				eligible for the National School Lunch Program reached the level 
				of at or above proficient, while the overall percentage of 8th 
				grade math students in the nation who reached the level of at or 
				above proficient was 32% (NAEP Report Cards). In Georgia, only 
				15% of 8th-grade math students eligible for the National School 
				Lunch Program performed at the level of at or above proficient, 
				while the overall percentage of 8th-grade math students in 
				Georgia who reached the level of at or above proficient was 28% 
				(NAEP Report Cards). Clearly, poverty is a major impediment to 
				success in mathematics.
				
				Is it possible that the performance gap 
				between Georgia and the nation could be narrowed again if more 
				students in poverty began to perform at a proficient level? By 
				identifying high performing schools in high-poverty areas, we 
				can determine the reasons for this high performance, in order to 
				better reach math students in Georgia who live in poverty.
				
				
				Methodology
				
				
				In the U.S. Quick Facts: Persons in Poverty, 
				the U.S. Census Bureau divides the counties of Georgia into five 
				categories based on the percentage of people living in poverty 
				with the lowest percentage category of 5.7-14.9% and highest 
				percentage category of 26.8-39.2%. There are 30 Georgia counties 
				in the category with the highest level of poverty. According to 
				the Quick Facts, Clarke County is a high poverty county. 
				However, research indicates that poverty rates are over-reported 
				in towns near a large university, as in Clarke County's case, 
				University of Georgia. Therefore, we excluded Clarke County from 
				our study (Benson & Bishaw).
				
				NAEP assessment data does not break down 
				scores by county. Therefore, to identify which of the 29 
				counties have high-performing schools, we studied the Georgia 
				Milestone Assessment System (GMAS) from the Georgia Department 
				of Education, which publishes the results of the GMAS by county. 
				In order to select the high-performing counties, we chose 
				counties with at least 40% of students scoring at or above 
				proficient on the GMAS. We chose this minimum value as it is 
				significantly higher than the overall state's percentage of 
				34.5% (Georgia Department of Education). According to the 
				2016-2017 Georgia Milestones Statewide Scores Spring 2017 School 
				Summaries, there are four counties of the 29 high-poverty 
				counties which significantly exceeded the state of Georgia's 
				percentage of students at or above proficient (Georgia 
				Department of Education). See the table below. 
				
					
						
							
							
						
						
							| 
							 
							
							County  | 
							
							 
							
							Poverty Rate  | 
							
							 
							
							Proficient and Above  | 
						
						
							| 
							 
							
							Charlton  | 
							
							 
							
							27.2%  | 
							
							 
							
							53.6%  | 
						
						
							| 
							 
							
							Tattnall  | 
							
							 
							
							29.8%  | 
							
							 
							
							51.1%  | 
						
						
							| 
							 
							
							Johnson  | 
							
							 
							
							29.4%  | 
							
							 
				
							
							50.0%  | 
						
						
							| 
							 Telfair  | 
							
							30.8% | 
							
							47.9% | 
						
					
					
				
					Table 1- Georgia Milestone High-Performing Counties
					 
 
				
				
				The Georgia Department of Education also 
				provides assessment data for all the schools within these 
				high-performing counties. The Spring 2017 Georgia Milestones 
				End-of-Grade Assessment for these schools is shown in Table 2.
				
				
				 
				
					
						
							
							
						
						
							| 
							 
							
							County  | 
							
							 
							
							School  | 
							
							 
							
							Proficient and Above  | 
						
						
							| 
							 
							
							Charlton  | 
							
							 
							
							Bethune Middle School  | 
							
							 
							
							53.6%  | 
						
						
							| 
							 
							
							Johnson  | 
							
							 
							
							Johnson County Middle School  | 
							
							 
							
							50.0%  | 
						
						
							
							| 
							 
							
							Tattnall  | 
							
							 
							
							Glennville Middle School  | 
							
							 
							
							55.1%  | 
							
						
						
							
							| 
							 
							
							Tattnall  | 
							
							 
							
							Collins Middle School  | 
							
							 
							
							60.9%  | 
							
						
						
							| 
							 
							
							Tattnall  | 
							
							 
							
							Reidsville Middle School  | 
							
							 
							
							42.1%  | 
						
						
							| 
							 Telfair  | 
							
							Telfair County Middle School | 
							
							47.9% | 
						
					
				
				
				 
				
				
				Table 2- Georgia Milestone High-Performing Schools
				
				We emailed the survey below to the eleven 8th 
				grade math teachers at these schools.
				
				
				
				If we did not receive a response, we repeated 
				the request two more times. After sending the survey request 
				three times, five of the eleven teachers responded.
					
						
							
				
							| 
							 
							
							School  | 
							
							 
							
							County  | 
							
							 
							
							Number of Responses  | 
							
						
						
							
				
							| 
							 
							
							
				
							
							Bethune Middle School  | 
							
							 
							
							
				
							
							Charlton  | 
							
							1 | 
							
						
						
							
				
							| 
							 
							
							
				
							
							Johnson County Middle School  | 
							
							 
							
							
				
							
							Johnson  | 
							
							1 | 
							
						
						
							
				
							
							| 
							 
							
							Telfair County Middle School  | 
							
							 
							
							Telfair  | 
							
							2 | 
							
						
						
							
				
							
							| 
							 
							
							Anonymous  | 
							
							 
							
							Anonymous  | 
							
							1 | 
							
						
					
				
				
				Results of the Surveys
				
				
				When asked about 
				instructional methods or other aspects that the teachers deemed 
				important to their students' success, we found that most of the 
				teachers stressed the importance of assessments, grouping 
				strategies, high expectations, and technology. Some also 
				referenced their curriculum and actual instructional methods.
				
				The first main focus was 
				assessments, mainly formative assessments. These formative 
				assessments varied in timing at different locations in the 
				lesson. For example, Mauri Jarrard, an 8th-grade math teacher at 
				Telfair County Middle School, uses an informal or formal 
				assessment prior to covering new content. This enables her to 
				determine the student's background knowledge and fill in any 
				missing skills. Sabrina Rentz, another 8th-grade math teacher at 
				Telfair County Middle School, utilizes formative assessments 
				during the lesson. Rentz stated, "Students have numerous 
				opportunities to show what they know during the lesson by 
				utilizing an array of assessments, such as stick-its, 
				whiteboards, thumbs-up/down, agree/disagree, Socrative app, and 
				Quizizz. These results are used to gauge my students' 
				understanding of the content and adjust instruction." 
				Eighth-grade math teacher, Siterro Wheeler, mentioned another 
				opportunity to use formative assessment. After exposing her 
				students to the new content one day, the next day Wheeler uses a 
				formative assessment to determine daily grouping for students. 
				This enables the students to practice the new ideas learned on 
				the first day of the lesson. Another location of formative 
				assessment use is at the end of the class. Not only does Jarrard 
				begin the new content with an assessment, she also ends each day 
				with one in order to assess the students' learning of the 
				content introduced that day. Some of her practical examples are: 
				ticket out the door, think-pair-share, writing assignment to 
				explain their learning for the day, and demonstrating 
				understanding of the content via a hands-on activity. 
				
				Not only are teachers at the 
				high-performing schools conducting formative assessments, they 
				are also continuously assessing informally during the lesson. 
				Wheeler is constantly rotating throughout the classroom. This 
				allows her to be able to assist any student as needed while they 
				complete their independent practice. She also repeats and asks 
				questions about the topic throughout the lesson. Additionally, 
				Wheeler has students summarize the main vocabulary terms and 
				main concepts as a class. Likewise, Rentz informally assesses 
				while students work in groups together. Informal assessment 
				allows both of these teachers to determine what their students 
				know or where they are lacking understanding so they can adjust 
				as needed. 
				Secondly, the teachers 
				heavily utilize grouping strategies. The surveyed teachers use 
				formatives assessment to group students. Rentz said, "All groups 
				are created with a purpose. Sometimes I utilize heterogeneous 
				groups to allow for peer tutors and at other times I use 
				homogenous groups with leveled work that matches their 
				abilities." This method allows the grouping to be fluid and 
				benefit all students. Wheeler also describes her use of 
				formative assessment for grouping as, "A formative assessment is 
				given to the students to determine daily grouping. Based on the 
				formative assessment, students either work independently on a 
				rigorous assignment or they work in a small group led by me to 
				strengthen their understanding of the concept." 
				Thirdly, the teachers 
				attributed their students' success to high expectations. Rentz 
				stated, "It is my belief that another major impact on my 
				students is the high expectations that I hold for them 
				regardless of their ability levels. My classes are grouped based 
				on ability and my lower achieving class is exposed to everything 
				my other classes are. They are expected to be able to succeed 
				with the same content as everyone else. I use the assessments to 
				see what parts of it I need to differentiate, but I never 
				decrease work amount as differentiation. The type of 
				differentiation that I utilize has students learning the same 
				material and practicing on the same material, but maybe in 
				different ways. I require them to dig deeper into the content 
				and expand on that. High expectations play a tremendous part in 
				student success. They are going to perform to the expectations 
				you have for them." A teacher, who asked to remain anonymous, 
				echoed Rentz by saying, "Students must be held to a high 
				standard. Expect every student to excel." Not only should 
				individual teachers convey high expectations, the whole school 
				should also hold each student to a high standard. Wheeler 
				praised her school for conducting a major school-wide initiative 
				that "raised the bar for all students." This included 
				implementing PBIS school-wide and having teachers create lessons 
				that are "rigorous and challenging while meeting the needs of 
				every student." From reading the teacher responses, 
				communicating clear and high expectations to the students is a 
				major key to their success. 
				The fourth major aspect of 
				student success mentioned by many of the teachers is the use of 
				technology. Technology is a way to keep students engaged. 
				Additionally, technology is very mobile and versatile. Walker 
				uses it for students to practice tests online through the 
				academic software Study Island. Rentz and Jarrard stress the 
				importance of giving every student access to some form of 
				technology. "We expose our students to various forms of 
				technology. Our students have access to Chromebooks, iPads, 
				SmartBoards, and calculators. The SmartBoard is used almost 
				daily to provide instruction and occasionally used for student 
				activities. Each math teacher has a class set of iPads that can 
				be used for assessment and activities", stated Jarrard. 
				Likewise, Rentz expresses, "We use technology on a daily basis 
				in the classroom to increase student success. The iPads are used 
				for different performance tasks, review activities, and 
				assessments. By incorporating technology, we are able to reach 
				more of our students and keep them actively engaged." 
				
				Fifth, the teachers stressed 
				the importance of a strong curriculum. When discussing 
				curriculum, every teacher varied in his or her response. Some 
				use only the Georgia Performance Standards and supplement with 
				various resources. One teacher mentions, "When looking for 
				resources, the focus is to solidify the understanding of the 
				content and to provide appropriate rigor." Similarly, another 
				teacher revealed that she uses the Georgia Performance Standards 
				and the Engage New York (ENY) curriculum. "I really like the ENY 
				approach because it is more rigorous, and the methods are 
				mathematically sound. The curriculum is based on the deep 
				understanding of mathematical concepts rather than just 
				procedures," she said. On the other hand, one uses Glencoe Math 
				by McGraw-Hill as her main math curriculum. She states, "It 
				helps me as a teacher to be better prepared to differentiate my 
				instruction, which in turn will help the students achieve 
				success." After reading all of these responses, there was 
				another aspect that was intriguing. Bethune Middle School has 
				created two math classes for the 8th graders. Walker states, 
				"Our principal made a crucial decision in 2014-2015, he added a 
				support math class to 8th grade during the first year of GMAS, 
				so 8th graders had two math classes. In one class, students 
				learn the standards through units. The support math class is 
				used to reinforce concepts and do extra practice. In my opinion, 
				the addition of the second math class has been the reason for 
				our higher than the state's percentages in the proficient and 
				exceeding levels of the mathematics GMAS. I really believe the 
				reinforcement during the 2nd math class in addition to the extra 
				hour of practice has made the biggest difference in the scores."
				
				Lastly, the teachers reported 
				using a variety of instructional methods to meet the needs of 
				their students, such as:
				
					(1) Direct instruction.
					(2) Interactive 
					notebooks.
					(3) Discovery of patterns 
					to aid in the development of algorithms.
					(4) Modeling procedures.
					(5) Thinking maps.
					(6) Manipulatives
					(7) Constant review
					
				
				
				
				Addressing the Needs of Students Living In 
				Poverty
				
				
				In order to address the needs 
				of students living in poverty, the high-performing schools, 
				oftentimes in collaboration with their school systems, seek and 
				utilize external partners and consider the special needs of 
				students living in poverty. In particular, the respondents 
				credit the following for impacting student learning and success 
				at their schools: 
				
					(1) Providing for the 
					nutritional needs of their students. 
					All respondents stressed the importance of meeting the 
					nutritional needs of their students. Students are provided a 
					free breakfast and lunch. According to Rentz, "Students 
					living in poverty may only receive a warm meal at school. By 
					providing students with the nutrition that their bodies 
					need, we are helping fuel their brains and increase focus 
					and memory retention in the classroom." Some schools provide 
					food beyond the regular work week to ensure their students 
					are not in want. Wheeler states, "Several students are given 
					sack lunches to take home on the weekends because of lack of 
					food within their homes." 
					(2) Providing supplies to 
					students. 
					In partnership with members of the community, employees of 
					the Telfair County schools host a beginning of the year 
					kick-off event at the county recreational department. At 
					this event, parents receive the supplies their child will 
					need for the school year. In addition, Jarrard shares, "Our 
					school has a supply room with supplies provided by various 
					local churches, businesses, and people throughout the 
					community. Our students have access to these supplies 
					whenever they are needed." 
					(3) Seeking out families 
					in need and immediately providing help. 
					At Johnson County Middle School, Wheeler states, "All 
					faculty and staff go above and beyond to ensure that 
					students are learning and succeeding. If there is an issue, 
					we quickly act upon it by contacting the necessary people to 
					help find a solution to the issue. We have a representative 
					that seeks out families in need and she makes sure those 
					students needs are taken care of immediately." 
					(4) Demonstrating to your 
					students that you care about them. 
					One teacher stressed that "you must have empathy for what 
					your students go through every day. Students must know that 
					you care about them and understand that you expect them to 
					excel" in order to break the poverty cycle. 
					(5) Increasing the 
					curriculum at school in order to decrease the homework 
					expectations based on the situation at home. 
					One teacher states, "I rarely give homework because most of 
					the time there is no help at home." At Bethune Middle 
					School, Walker states, "the factor that has had the major 
					impact on test scores besides sound math instruction is the 
					extra math class. The higher rigor of common core math 
					requires students to spend more structured time using and 
					applying what they learned. Before, students had to find 
					time at home to review, but most parents are unable to help 
					their children in this new math." 
					(6) Obtaining external 
					technology grants. 
					Telfair County Middle School was awarded a technology grant 
					that provided each math classroom with a SmartBoard and a 
					classroom set of iPads. According to Rentz, "Most students 
					who live in poverty are not fortunate enough to have access 
					to this type of technology. 
				
				
				
				Conclusion
				
				
				By studying schools in 
				high-poverty areas that have achieved high levels of student 
				success, we have found the following key components of success: 
				continuous assessment, grouping strategies, high expectations, 
				technology use, strong curriculum, and a variety of teaching 
				methods. We believe that all students at all schools in Georgia 
				will benefit from these components of success. Further, all 
				schools have at least some students who live in poverty. In 
				order to address their specific needs, our study found that 
				schools and school systems need to: (1) address students' 
				nutritional needs, (2) provide supplies to students, (3) seek 
				out families in need and immediately provide help, (4) 
				demonstrate to students that you care about them, (5) increase 
				the curriculum at school in order to decrease homework 
				expectations, and (6) obtain external technology grant. 
				
				Acknowledgments: We wish to 
				thank the 8th-grade math teachers Mauri Jarrard and Sabrina 
				Rentz at Telfair County Middle School, Suraya Walker at Bethune 
				Middle School, Siterro Wheeler, and an anonymous teacher for 
				both their dedication to their students as well as their 
				willingness to take the time to provide well-thought-out 
				responses to our survey. We also thank the principals Danny 
				McCoy at Bethune Middle School, Christopher Ellis at Telfair 
				County Middle School, and Elaine Merritt for connecting us with 
				these excellent teachers. 
				
				
				References
				
				
				Benson, C., & Bishaw, A. 
				(2017, December 07). Examining the Effect of Off-Campus College 
				Students on Poverty Rates. Retrieved April 09, 2018, from
				
				https://www.census.gov/data/tables/2017/demo/income-poverty/acs5yrs.html
				Georgia Department of 
				Education. (2017, July 20). Georgia Milestones 2016-2017 
				Statewide Scores. Retrieved February 19, 2018, from
				
				http://www.gadoe.org/Curriculum-Instruction-and-Assessment/Assessment/Pages/Georgia-Milestones-2016-2017-Statewide-Scores.aspx
				
				The Nation's Report Card. (n.d.). 
				NAEP Mathematics. Retrieved February 10, 2018, from
				
				https://www.nationsreportcard.gov/math_2017/#states/scores?grade=8
				
				United States Census Bureau. 
				(n.d.). U.S. Census Bureau QuickFacts: United States. Retrieved 
				March 01, 2018, from
				
				https://www.census.gov/quickfacts/fact/map/US/IPE120216#viewtop
				
				
				
					
						
							
							
						  | 
							Dr. 
							Gregory Harrell is a Professor in the Department 
							of Mathematics at Valdosta State University. He is 
							interested in facilitating success for all 
							mathematics students from kindergarten to college 
							graduation. He earned his M.A. in Mathematics at the 
							University of Georgia and Ph.D. in Instruction & 
							Curriculum with a specialty in Mathematics Education 
							from the University of Florida. | 
						
					
				
				
				
					
						
							
							
						  | 
							
				Anna Joy Holton is 
				currently attending Valdosta State University. She is pursuing a 
				bachelor's degree in Middle Grades Education with concentrations 
				in Mathematics and Social Studies. She is currently completing 
				her student teaching in an 8th grade Pre-Algebra class and will 
				graduate with Honors in December of 2018. | 
						
					
				
				
				
				
				
				
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					Four Cs and Mathematics 
					by Dr. Julie 
					Carter and Dr. Rhonda Amerson; both assistant professors 
					within the Department of Teacher Education and Social Work 
					at Middle Georgia State University | 
				
			
			
			
			
			
			
				
				
				
				
				
				A new school year always brings with it the 
				excitement of a new group of students and renewed energy to plan 
				and teach engaging lessons that not only meet the standards but 
				also prepare students for their life after high school. Teaching 
				the traditional "Three R's", Reading, Writing, and Arithmetic, 
				leaves students lacking the skills they need for the 21st 
				century. In addition to subject matter knowledge, today's 
				students must be skilled in critical thinking, communication, 
				collaboration, and creativity (the "Four Cs") (National 
				Education Association, 2010). Educators must complement their 
				subject matter content with the "Four Cs" to prepare young 
				people for citizenship and the global workforce (National 
				Education Association, 2010). The "Four Cs" can be incorporated 
				into any classroom, but it requires educators to be intentional 
				and purposeful in their planning. If students are going to be 
				equipped with 21st-century skills when they graduate high 
				school, they must have been provided opportunities to develop 
				these skills throughout their schooling. 
				
				
				
				
				
				Unfortunately, there is not a single resource 
				that educators can implement in their classroom that will 
				address all of the 21st century needs of their students. The 
				flood of technology resources provided for educators is vast. 
				Sorting through the plethora of resources in order to find the 
				perfect combination that will address all of the "Four Cs" in 
				one lesson will most likely leave the educator feeling defeated 
				and overwhelmed. However, the skills students need for the 21st 
				century, critical thinking, communication, collaboration, and 
				creativity, can be addressed by taking advantage of technology, 
				utilizing group activities, assigning project- and problem-based 
				learning, and most importantly, sharing resources. 
				
				
				
				
				
				
				
Opportunities 
				to think critically and problem solve are essential in the 
				mathematics classroom. These learning experiences push students 
				from "doing" mathematics to "understanding" mathematics. 
				Problem-based learning and project-based learning are great ways 
				for math educators to increase critical thinking in their 
				classroom. These learning opportunities should incorporate 
				inductive and deductive reasoning, require students to interpret 
				information and draw conclusions, and solve unfamiliar problems 
				in both conventional and innovative ways. Robert Kaplinsky's 
				website (https://robertkaplinsky.com) 
				is an excellent source for a list of free real-world 
				problem-based lessons that encourage critical thinking. 
				
				
				
				
				
				
				
Communication 
				represents a variety of interactions in the classroom. 
				"Expressing thoughts clearly, crisply articulating opinions, 
				communicating coherent instructions, motivating others through 
				powerful speech--these skills have always been valued in the 
				workplace and in public life. But in the 21st century, these 
				skills have been transformed and are even more important today" 
				(National Education Association, 2010, p. 13). While important, 
				face-to-face communication is no longer the primary way students 
				interact with each other. 
				
				
				
				
				
				
				
They 
				must continue to be taught how to communicate with someone 
				face-to-face, but must also be equipped with the skills to 
				communicate virtually and with people from different 
				backgrounds. In a mathematics classroom, students should be 
				communicating with the educator and other classmates through 
				multiple platforms. These could include email, Google classroom, 
				class website, making individual and group presentations inside 
				and outside of the classroom, creating a blog, and discussing 
				assignments with students in another state or country, to name a 
				few. The G Suite for Education by Google provides numerous ways 
				for students to communicate in and outside of the classroom.
				
				
				
				
				
				
				
				
Addressing 
				the "Four Cs" individually can be difficult. Through many of the 
				communication examples listed above, students are engaging in 
				collaboration. In a mathematics classroom, students must be 
				required to work in diverse teams to develop a solution to a 
				real-world problem. Fifty years ago, many jobs could be 
				completed individually. However today, much work is accomplished 
				in teams, and in many cases, global teams (National Education 
				Association, 2010). Through the use of resources similar to 
				Google docs and Padlet, students can collaborate with classmates 
				or students across the world. These learning experiences provide 
				students with the opportunity to strengthen their collaboration 
				skills. 
				
				
				
				
				
				Time constraints often impede the ability to 
				incorporate opportunities to strengthen students' creativity. 
				However, in the math classroom, creativity can easily be 
				integrated into the class by creating an environment where 
				students are encouraged to develop innovative ways of solving a 
				problem and are praised for sharing their original solution. 
				Math educators should incorporate problems into their classroom 
				that can be solved using multiple methods or have multiple 
				solutions. This encourages students to use a wide range of 
				skills and think outside of the box. Students should have access 
				to materials inside the classroom so that they can creatively 
				problem solve. Additionally, students should be encouraged to 
				use a variety of technology resources, such as building a 
				website through Google sites, creating a movie using an iMovie, 
				or comic strip through
				canva.com.
				
				
				
				
				
				
				Integrating the "Four Cs" into the 
				mathematics classroom does take some research and planning, but 
				these efforts will benefit students as they prepare to enter the 
				current workforce. Educators should not feel overwhelmed by 
				attempting to address all of the "Four Cs" in one lesson. 
				Instead, educators should focus on one or two of the "Four Cs" 
				and slowly integrate new technology resources into their 
				classroom. Incorporating technology resources, group activities, 
				project-based, and problem-based learning in the mathematics 
				classroom will help to develop the skills students need to be 
				successful in the 21st century. 
				
				
				
				
				
				References
				
				
				
				National Education Association (2010). 
				Preparing 21st Century Students for a Global Society: An 
				Educator's Guide to 'The Four Cs'. [online] Washington DC: 
				National Education Association. Available at:
				
				http://www.nea.org/assets/docs/A-Guide-to-Four-Cs.pdf 
				[Accessed 24 Jul. 2018].
				
					
					
						
							
							
							
				
						  | 
							Dr. Julie Carter is an assistant professor 
							within the Department of Teacher Education and 
							Social Work at Middle Georgia State University. She 
							has experience teaching high school math. Her 
							research interests include instructional technology 
							and self-efficacy. | 
						
					
				
					
					
						
							
							
							
							
				
						  | 
							
							
							Dr. Rhonda Amerson is an assistant professor 
							within the Department of Teacher Education and 
							Social Work at Middle Georgia State University. She 
							has 23 years of classroom experience in grades 2-8, 
							and her research interests include instructional 
							practices, integrated curriculum, and classroom 
							management. | 
						
					
				
				 
				
				
				
			
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			Implementing open tasks that reveal students' 
			misconceptions can be unnerving for any teacher, and supporting 
			students' discourse about those misconceptions can be equally 
			challenging. Such tasks and discourse can be especially difficult 
			with younger students who are still developing communication skills, 
			but engaging in their use can be rewarding for students and 
			teachers. In this paper, we describe the design of, enactment of, 
			and reflection on a lesson in which technology was used to revisit 
			ideas from a previous lesson, to support first and second-grade 
			students in arguing and confronting valid and invalid strategies for 
			measuring length in order to develop deeper understandings of 
			aspects of measurement. 
				
			 
				
			We describe the lesson in more detail below, but 
			first, give an overview of its affordances and limitations. This 
			lesson, collaboratively developed by a mentor teacher, an intern 
			teacher, and a teacher educator (first author), was productive: 
			students tried out strategies, discussed their ideas, were surprised 
			when they saw strategies that resulted in different answers, and 
			argued about why the answers were different and why they were not 
			correct. At the same time, the lesson was messy: we knew not all 
			students left the lesson with a perfect understanding of length 
			measurement, and it was difficult to measure new growth or new 
			understandings for each student. The teachers and the first author 
			reflected on the lesson and considered potential improvements. We 
			all felt confident that the benefits from the discussions, 
			arguments, and confrontations of misconceptions had at least added 
			to the students' foundations for later understandings. 
				
			 
				
			We describe the development, enactment, and 
			reflection on this lesson in this paper, with one focus on 
			acknowledging and accepting that the mathematics and learning 
			outcomes that emerge from this approach can be messy and difficult 
			to measure, but are also valuable. A second focus is on the 
			complexity of interaction between pedagogy, mathematics, and 
			technology. That is, the pedagogy involved implementing an open, 
			multi-level task and facilitating productive discussion at points in 
			the task, the mathematics involved attention to sophisticated 
			aspects of length measurement such as unit-attribute relations, 
			partitioning, and tiling (explained below), and the technology was 
			used to build on a previous, concrete task and to focus student 
			attention on particular strategies. 
				
			 
				
			Background and Method
				
			 
				
			Ms. Holst, an intern teacher in a full year 
			teaching field experience, worked with a mentor teacher who had 
			taught for ten years. The elementary school was a Title 1 school 
			with students at a wide range of mathematics proficiency levels 
			based on standardized mathematics testing. The classroom in this 
			paper combined 28 first- and second-grade students (14 at each 
			level). Following recommendations from Mathematics Teaching 
			Practices from Principles to Actions: Ensuring Mathematical Success 
			for All (National Council of Teachers of Mathematics, 2014), Ms. 
			Holst's mentor teacher incorporated challenging tasks and student 
			discourse into mathematics lessons. She valued developing classroom 
			norms encouraging students to make and test conjectures, make 
			claims, and support claims with evidence to support their 
			development of conceptual understanding and procedural fluency. She 
			supported students' metacognition by asking them to reflect on their 
			thinking and to notice when it changed. She also asked her students 
			to engage in challenging tasks. After a task, she frequently asked 
			students to reflect on their strategies by viewing examples of work 
			done by unknown (imaginary) students that illustrated different ways 
			of thinking and misconceptions. The mentor teacher asked students to 
			explain what they thought the imaginary student was thinking and 
			then to revise their initial solutions based on their new thinking. 
				
			 
				
			In collaboration with her mentor teacher, Ms. 
			Holst designed and taught a lesson focusing on length measurement to 
			her combined first- and second-grade students. The lesson 
			incorporated van de Walle et al.'s (2013) Crooked Path activity (see 
			Figure 1). Ms. Holst created crooked paths similar to those in 
			Figure 1 using masking tape on the floor and on some tables. 
			Students worked individually. They used physical objects to measure 
			paths, recorded their measurements, and moved to the next path. Ms. 
			Holst felt her lesson engaged her students in experimenting with 
			length measurement. However, because of the classroom management and 
			logistics involved in facilitating students' movement from path to 
			path, and because students were measuring and recording 
			individually, Ms. Holst felt she missed important aspects of student 
			thinking and insight in the end-of-lesson discussion. 
				
			 
				
			
				
			 
				
			Figure 1. Examples of "Crooked Paths" (Van de Walle, 2013).
				
			 
				
			Planning the Lesson
				
			 
				
			Ms. Holst and the first author planned a 
			follow-up length measurement lesson for the initial physical object 
			implementation of the Crooked Paths task. Ms. Holst's goals for the 
			follow-up lesson were for students to build on the Crooked Paths 
			experience by allowing them to (a) engage in a task designed to 
			reveal misconceptions, (b) use a dynamic applet to view and then 
			reflect on two common strategies, each revealing a different 
			misconception, and (c) use the dynamic applet as a tool to support 
			mathematical discourse about the meaning of units in measurement. As 
			part of the planning, the author adapted the task based on 
			discussions with Ms. Holst, creating a set of three applets to be 
			incorporated into the lesson. We designed the lesson to support and 
			elicit student thinking about unit-attribute relations, 
			partitioning, and tiling based on Barrett & Clements' (2003) and 
			Lehrer's (2003) discussion of these components for learning length 
			measurement. Unit-attribute relations refers to students' 
			ability to recognize the relationship between the unit that 
			is used to measure and the attribute being measured. In the 
			digital Crooked Paths task, unit-attribute relations emerged as 
			students used a two-dimensional shape (e.g., a tile) to measure the 
			one-dimensional attribute (e.g., length) of a path. Common 
			misconceptions about the relationship between the tiles and the 
			length of a path are allowed to emerge when corners are part of the 
			path (see Figure 2). Students may place tiles around the outside of 
			the corner, counting one extra unit because a tile fits outside the 
			corner (see a). Students might place tiles around the inside of the 
			corner, counting a tile in the corner once despite the two unit 
			lengths (see b). Attending to the unit-attribute relationship, a 
			student would skip the corner (green) or double-count the corner 
			(yellow) to count 4 unit lengths (see c).
				
			 
				
			
				
			 
				
			Figure 2. Counting tiles (2D object) compared to 
			counting lengths (1D part of a 2D object).
				
			 
				
			Partitioning refers to the idea that the 
			length must be divided into some number of equivalent spaces. That 
			is, the lengths along a path identified by placing tiles must be the 
			same size. When using concrete objects to measure length, 
			partitioning means attending to precision to create unit lengths 
			that are the same size; that is, avoiding gaps and overlaps (see 
			Figure 3). The other side of partitioning, tiling, refers to 
			the concept of filling the space completely (e.g., no gaps). This 
			applet deliberately allows gaps and overlaps to allow misconceptions 
			to be revealed and to allow students the opportunity to actively 
			work on precision (when they notice the gaps and overlaps as 
			problematic). The task supports students in developing their 
			conceptual understanding of partitioning and tiling by 
			allowing them to leave spaces or overlaps and then to confront the 
			mathematical consequences when they compare solutions.
				
			 
				
			
				
			 
				
			Figure 3. Mathematical consequences of gaps and overlaps 
			include the possibility of infinite, distinct measures of the same 
			length.
				
			 
				
			Lesson Plan
				
			 
				
			The lesson structure used a 
			Launch-Explore-Connect-Explore-Connect format. Ms. Holst 
			introduced the task by showing students how to open the applet and 
			move the pieces. In teams of three or four, students found lengths 
			for paths in Activities 1 and 3 (see Figure 4).
				
			
				
			 
				
			Figure 4. Activities 1 and 3 are shown on the left and right, 
			respectively. 
				
			 
				
			Ms. Holst led the class to compare solutions. 
			They found groups had different solutions. She showed the students 
			the video of Yellow over-counting and Green under-counting (see 
			Figure 5). Ms. Holst asked students to discuss Yellow's thinking and 
			Green's thinking in their small groups. She asked them to revise 
			their strategies as needed. Finally, Ms. Holst led a whole class 
			discussion where students shared their thinking and guided her 
			through the tiling process to discover the misconceptions about 
			Yellow's and Green's thinking.
				
			 
				
			
				
			 
				
			Figure 5. Jagged Paths animation showing two common (but 
			incorrect) strategies: underestimating and overestimating.
				
			 
				
			The lesson was the last of the day and took one 
			hour. As students worked on their exploration of Activities 1 and 3, 
			Ms. Holst asked groups to take screenshots of anything they thought 
			was interesting. Of the nine groups, six groups took screenshots 
			within a few minutes of each other. All screenshots are shown in 
			Figure 6, in no particular order. The screenshots show different 
			strategies used by students: placing tiles along the inside of the 
			path, placing tiles along the outside of the path (with corner 
			blocks and without corner blocks), and placing tiles that were 
			centered on the path.
				
			 
				
			
				
			 
				
			Figure 6. Screen shot images taken by six of the nine groups. 
			(Some images are smaller or larger depending on student actions, but 
			otherwise differences in size have no significance.)
				
			 
				
			Groups A, C, D, and F placed blocks along the 
			inside of the path, while group B placed blocks along the outside 
			and omitted the corners, and group E placed blocks centered on the 
			line. Students' attention to placement without gaps or overlaps can 
			be seen. Student groups shared the answers they had found, with most 
			answering 15 tiles, one group answering 17, and one group answering 
			19 1/2. 
				
			 
				
			Ms. Holst showed the green squares placement 
			(Green's strategy) animation in Activity 2 (shown in Figure 7a), 
			which results in the placement of 19 squares. She asked them, "What 
			was Green's answer? What did the Green student do? Write about it!" 
			After a few minutes of writing, she showed the yellow squares 
			placement (Yellow's strategy) animation in Activity 2 (shown in 
			Figure 7b), which results in 15 squares. Students acted surprised 
			and several hands shot in the air, impatient to share. After a few 
			minutes of writing, Ms. Holst asked students to discuss their 
			reactions in their groups. 
				
			 
				
			
				
			 
				
			Figure 7. Screenshots from Activity 2. (a) Image shows 
			Green's (wrong) placement and (b) Image shows Yellow's (wrong) 
			placement of squares in contrast to Green's.
				
			 
				
			Students described their thinking in different 
			ways showing a range of various understandings and various levels of 
			ability in communicating their own thinking. A student in one group 
			pointed to Green's corner squares and said, "Corners -- they put one 
			in the corners." Another student answered, "The line on the inside 
			is shorter. The one on the outside is longer." I asked him if the 
			line was different lengths on different sides and he agreed, 
			pointing to Yellow's path and Green's path. A student (Student B in 
			Table 2) in a different group pointed to Green's path and said, 
			"That's what we did. That's why we got 19. But the yellow is right. 
			I have proof -- because more [groups] got 15." 
				
			 
				
			After some time spent in group discussion, Ms. 
			Holst called for students' attention. She asked them to share 
			thoughts about Green's and Yellow's strategies. One student 
			referenced the previous lesson in which students measured with 
			objects. In that lesson, because the students kept counting with the 
			first counted object as "zero," Ms. Holst explained to them that 
			zero means "a nothing unit." Ms. Holst showed me that she had 
			indicated the nothing unit by squishing her fingers tightly 
			together. In explaining why the squares placed outside the corners 
			of the path (and thus touching only a tiny bit), the student 
			referenced that discussion by also pushing her fingers together 
			while talking about the space at the corner being counted as zero. 
			Ms. Holst did not feel satisfied with the students' explanations, 
			because they had seemed to accept the inside (yellow) strategy. At 
			the moment, she made a decision to continue the class discussion by 
			asking students to be "Line Detectives." She opened Activity 1, 
			using a computer behind the class. She wanted to support students in 
			noticing that measuring the path was not counting the squares; 
			rather, measuring the path was counting the number of side lengths.
			
				
			 
				
			First, she focused students' attention on the 
			side lengths by asking them, "What is the unit we are using to 
			measure?" Students responded with multiple responses, including 
			"Inch" and "Kind of an inch like we used to measure things." Ms. 
			Holst asked again, "Read the instructions again: 'Find the length of 
			the jagged path by dragging the unit squares.' Hmmm. '...dragging 
			the unit squares...' Maybe the unit isn't an inch. We just have a 
			line that we're measuring -- is the unit square the unit?" One 
			student answered, "On the side." Another student agreed, "She said, 
			and I agree with her, to measure on the side." Ms. Holst responded, 
			"Is the unit the whole square or the side? [moves a square] When am 
			I measuring part of the line? You will be line detectives as I move 
			the squares..." 
				
			 
				
			Next, Ms. Holst placed the green and yellow 
			squares, following the same paths as the animation. She asked 
			students to carefully watch and tell her when a square touched the 
			jagged path once, twice, or not at all. Students watched closely as 
			Ms. Holst moved each square, placing it on the outside of the path. 
			Frequently, a chant of "Gap!-Gap!-Gap!-Gap!-Gap!" went up. Finally, 
			Ms. Holst stopped and said, "You guys are so good at noticing the 
			gaps. But I'm doing the best I can with this mouse so just look for 
			whether I'm measuring part of the line or not." When Ms. Holst 
			reached a corner and placed a square at the corner, students yelled, 
			"No!" When she finished placing the squares, the students counted 
			with her to reach 17 squares touching the line. She repeated the 
			process with the inside of the square, asking them "For the inside, 
			is each square only measuring one unit of the line?" As she placed a 
			square in the corner, she asked, "Is this square only measuring one 
			unit of the line?" Some students said, "Yes" and others said, "No." 
			Ms. Holst explained, "Actually, the square is measuring two units 
			here -- so we need to count it twice." She and the students counted 
			how many times each square touched the line. They counted twice at 
			the corners to reach an answer of 17. A girl said, "What!" 
				
			 
				
			Ms. Holst instructed them, "Write on the paper. 
			What is your answer and how can you prove it's right?" Some students 
			had already written an answer. One student asked, "Do you want our 
			thinking now or from before?" Ms. Holst responded, "What is your 
			answer right now and how can you prove it's right?" As I watched 
			students writing, I asked some students to explain their answers to 
			me. One student told me the answer was 17 and that he could prove it 
			because it was how many times each square touched the line. His 
			written answer only indicated that the answer was 17 because we had 
			counted it twice for Green and for Yellow. 
				
			 
				
			Lesson Outcomes
				
			 
				
			The enactment of the lesson had mixed results. 
			Ms. Holst pointed out that one benefit of the lesson was providing 
			students with the opportunity to show off the new thinking acquired 
			from other measurement lessons, such as their thinking about the 
			value of precision, avoiding gaps and overlaps, and applying the 
			"zero unit." This attention can be seen in the groups' screenshots 
			shown in Figure 4, where squares are relatively aligned and fitted 
			closely together. One student even showed this value by remarking, 
			"He's so good! He's being very precise!" Students also showed their 
			attention to avoidance of gaps and overlaps during the last class 
			discussion when they chanted "Gap!-Gap!-Gap!" as soon as they saw 
			any space between squares. Another benefit of the lesson was 
			exposing misconceptions of some students, especially with respect to 
			gaps and overlaps and not connecting the act of measurement with the 
			characteristic of the line that was being measured. These 
			misconceptions are discussed in the next section. 
				
			 
				
			Conclusion
				
			 
				
			Complex mathematical ideas cannot be learned in 
			one lesson, but over time through messy work that allows student 
			misconceptions to be revealed, and through discourse that allows 
			students to confront their own misconceptions, show their newly 
			acquired knowledge, and change their thinking. Building a 
			measurement lesson that supports students' meaningful engagement in 
			making sense of measurement ideas, arguing, thinking critically, and 
			changing their own thinking is important to developing this 
			knowledge but may problematize the measurement of students' gains. 
			As Ball, Lubienski, and Mewborn (2001) wrote, "With focused, bounded 
			tasks, students get the right answers, and everyone can think that 
			they are successful. The fact that these bounded tasks sometimes 
			results in sixth graders who think that you measure water with 
			rulers may, unfortunately, go unnoticed" (p. 436). A lesson that 
			ends even though not all students have reached the learning goal is 
			not a failed lesson. Understanding measurement takes time, repeated 
			opportunities, and opportunities to engage with mathematics in 
			meaningful ways. 
				
			 
				
			References
				
			 
				
			Ball, D. L., Lubienski, S., & Mewborn, D.(2001). 
			Research on teaching mathematics: The unsolved problem of teachers' 
			mathematical knowledge. In V. Richardson (Ed.), Handbook of 
			research on teaching (pp. 433-456). New York, NY: Macmillan.
			
				
			 
				
			Barrett, J. E., & Clements, D. H. (2003). 
			Quantifying Path Length: Fourth-Grade Children's Developing 
			Abstractions for Linear Measurement. Cognition and Instruction, 
			21(4), 475-520. doi:10.1207/s1532690xci2104_4 
				
			 
				
			Lehrer, R. (2003). Developing understanding of 
			measurement. A Research Companion to Principles and Standards for 
			School Mathematics, 179-192. 
				
			 
				
			National Council of Teachers of Mathematics (NCTM). 
			2014. Principles to Actions: Ensuring Mathematical Success for 
			All. Reston, VA: NCTM. 
				
			 
				
			Van de Walle, J. A. (2013). Elementary and 
			middle school mathematics: teaching developmentally (8th ed.). 
			Boston: Pearson. 
				
			 
				
			Van de Walle, J. A., Karp, K. S., & Bay-Williams, 
			J. M. (2013). Elementary and middle school mathematics: Teaching 
			developmentally (8th ed.). Upper Saddle River, NJ: Pearson.
				
			 
				
				
				
					
					
						
							
							
							
				
						  | 
							Dr. Eryn M. Stehr is an Assistant Professor 
							of Mathematics Education at Georgia Southern 
							University, and a 2018 fellow in the Association of 
							Mathematics Teacher Educators' (AMTE's) Service, 
							Teaching, and Research (STaR) program for 
							mathematics education faculty. Her research 
							interests focus on developing teacher autonomy and 
							decision-making in mathematics teaching and 
							learning, with a special focus on integrating use of 
							technology with rich tasks and mathematical 
							discussion. She earned her M.A. in Mathematics from 
							Minnesota State University and her Ph.D. in 
							Mathematics Education from Michigan State 
							University. | 
						
					
				
					
					
						
							
							
							
							
				
						  | 
							
							
							Dr. Ha Nguyen is an Assistant Professor of 
							Mathematics Education at Georgia Southern University 
							and a Blue'10 Fellow in the Mathematical Association 
							of America's (MAA's) Project NExT (New Experiences 
							in Teaching) for mathematics faculty. She is 
							interested in students' understanding and thinking 
							of mathematics and how to deepen their mathematical 
							knowledge. She earned her Ph.D. in Mathematics from 
							Emory University.  | 
						
					
				
				
				
				
				
			 
				
				
				
				
				
				
				
				
				
				
				
				
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				The 59th annual Georgia Mathematics 
				Conference
				October 17-19, 2018
				
				The
				
				2018 Georgia Math Conference at Rock Eagle, will be held 
				Wednesday October 17 - Friday, October 19, 2018. We hope you 
				will join us! This year promises to be a great conference! The 
				theme this year is "Embracing Productive Struggle". Early 
				registration opened August 1st. Don't miss out --
				
				register for this conference today! As an added bonus, 
				conference attendees will receive a voucher to get 20% off an 
				NCTM book order during the subsequent week of the conference.
				
				
				
				
				
				
				
				GMC 2018 Keynote Speakers
				
				
				 
				
				
				
				
				
					
						
							
							
						  | 
							Dr. Thomasenia Lott Adams 
							Oct 17 (Wednesday Evening) 
							Thomasenia Lott Adams, 
							Ph.D. is a mathematics teacher 
							educator/researcher in the School of Teaching & 
							Learning and the Associate Dean of Research (ADR) in 
							the College of Education at the University of 
							Florida (UF), Gainesville, FL. Dr. Adams' 
							scholarship includes funded grants at the national 
							and state levels, including her role as Co-Principal 
							Investigator on the Florida STEM-Teacher Induction 
							and Professional Support Center funded by the 
							Florida Department of Education and the UF Noyce 
							Scholars Program: Raising STEM EduGators funded by 
							the National Science Foundation. She has a 
							commendable list of publications and conference 
							presentations is a senior author of the Go Math! 
							elementary mathematics textbook series published by 
							Houghton Mifflin Harcourt. She is also an author on 
							several publications of the National Council of 
							Teachers of Mathematics (NCTM) and Solutions Tree.
							 
							Service posts to her credit 
							include editor of the Mathematical Roots Department 
							in Mathematics Teaching in the Middle School and 
							co-editor of Investigations Department of Teaching 
							Children Mathematics both published by NCTM. Dr. 
							Adams has also served as board member of the 
							Association of Mathematics Teacher Educators board 
							member of the School Science and Mathematics 
							Association and past president of the Florida 
							Association of Mathematics Teacher Educators. Dr. 
							Adams is a previous recipient of the Mary L. Collins 
							Teacher Educator of the Year Award for the Florida 
							Association of Teacher Educators. She has 
							participated in major efforts to improve teaching 
							and learning of mathematics, including serving as a 
							mathematics coach across grades K-12, is a co-author 
							of K-12 mathematics professional development 
							programs and leader for the mathematics and science 
							job-embedded professional development and graduate 
							degree program for middle and high school teachers. 
							She is also an accomplished mentor of mathematics 
							education doctoral students.   | 
						
						
							
				
							 
				 | 
							
						
							| 
							 
							   | 
							Dr. Matt Larson 
							Oct 18 (Thursday Evening) 
							Matt Larson, Ph.D. is 
							president of the National Council of Teachers of 
							Mathematics (NCTM), a 70,000-member international 
							mathematics education organization. Previously, 
							Larson was the K-12 curriculum specialist for 
							mathematics in Lincoln (Nebraska) Public Schools for 
							more than 20 years.  
							Dr. Larson began his career in 
							education as a high school mathematics teacher and 
							served as a member of the leadership team for the 
							National Science Foundation Math and Science 
							Partnership project Math in the Middle at the 
							University of Nebraska-Lincoln. Dr. Larson's long 
							history of service within NCTM includes chairing the 
							Research Committee, serving for three years on the 
							Board of Directors, serving for two years on the 
							Executive Committee, and chairing the Budget and 
							Finance Committee. He has contributed extensively to 
							NCTM journals and books. His two-year term as NCTM 
							president began in April at the conclusion of the 
							2016 NCTM Annual Meeting & Exposition in San 
							Francisco.  
							Dr. Larson is a frequent 
							speaker before mathematics education audiences, and 
							he has authored or co-authored several books, 
							including a series on professional learning 
							communities and Common Core Mathematics. He is a 
							co-author of Balancing the Equation: A Guide to 
							School Mathematics for Educators and Parents, and he 
							was on the writing team of Principles to Actions: 
							Ensuring Mathematical Success for All (NCTM, 2014). 
							Dr. Larson has taught mathematics at the elementary 
							through college level and has held an appointment as 
							an honorary visiting associate professor at Teachers 
							College, Columbia University. In 1994 he was 
							recognized for his teaching accomplishments with a 
							U.S. West Outstanding Teacher Award.   | 
						
						
							
				
							 
				 | 
							
						
							
							  | 
							Dr. James Tanton 
							 Oct 19 (Friday Afternoon)
							 
							Believing that mathematics 
							really is accessible to all, James Tanton, Ph.D.
							is committed to sharing the delight and beauty 
							of the subject. In 2004 James founded the St. Mark's 
							Institute of Mathematics, an outreach program 
							promoting joyful and effective mathematics 
							education. He worked as a full-time high-school 
							teacher at St. Mark's School in Southborough, MA 
							(2004-2012), and he conducted, and continues to 
							conduct, mathematics courses and workshops for 
							mathematics teachers across the nation and overseas.
							 
							Dr. Tanton is the author of 
							Solve This: Math Activities for Students and Clubs (MAA, 
							2001), The Encyclopedia of Mathematics (Facts on 
							File, 2005), Mathematics Galore! (MAA, 2012) and 
							twelve self-published texts. He is the 2005 
							recipient of the Beckenbach Book Prize, the 2006 
							recipient of the Kidder Faculty Prize at St. Mark's 
							School, and a 2010 recipient of a Raytheon Math Hero 
							Award for excellence in school teaching. He also 
							publishes research and expository articles, and 
							through his extracurricular research classes for 
							students has helped high school students pursue 
							research project and publish their results. Dr. 
							Tanton is currently an ambassador for the 
							Mathematical Association of America.   | 
						
						
							
				
							 
				 | 
							
					
				
				
					FEATURED SPEAKERS
				
				
					Thursday, 10/18/18, 
					9:30-10:45 Kristopher Childs:
				
					
				
					"Every Child Has Genius Level Potential -- Are You Giving 
					Them Time to Showcase It?"
					(K-5) Participants will engage in the 6 Stages of Effective 
					Mathematics Instruction. Participants will make sense of a 
					lesson design process, develop an understanding of rich 
					problem-solving task selection and implementation, and 
					explore an effective instructional model. There will be a 
					keen focus on the impact of productive struggle during the 
					problem-solving process.
				
					
				
					
				Thursday, 10/18/18, 1:45-3:00 
				Michelle Bateman:
				
				
				
					Math Rx for a Productive Struggle -- "Do the Math"
					(Grades 6-12) Do you often hear students saying, "I don't 
				get this!" or "How do we do this?" Do you wonder about ways to 
				help your students through the struggle they have in 
				mathematics? Well, the best medication for the symptoms 
				associated with Productive Struggle will be addressed in this 
				engaging and hands-on math session. Through active 
				participation, you will leave with a better understanding of how 
				to develop lessons that support a Productive Struggle in a 
				positive way using the "Do the Math" Protocol.
				
				
				
					
				Thursday, 10/18/18, 1:45-3:00 
				Kristopher Childs:
				
				
				
					"Using Data to Make Sense of Students Struggles"
				
				
				
					(K-12) Participants will learn how to develop an effective 
				data-informed environment that is student-centered. Participants 
				will explore effectively assessing student learning, providing 
				meaningful feedback, and using data to inform instructional 
				decisions. In real-time participants will engage with an 
				assessment system and develop a plan of action to implement the 
				assessment system.
				
				
				
					
				Friday, 10/19/18, 9:45-11:15 
				James Tanton:
				
				
				
					"The Power of Visualization in Mathematics"
					(K-12) This session will demonstrate the astounding power -- 
				and fun! - of visual thinking in mathematics. Let's see just how 
				fundamental and crucial pictures are to problem-solving, doing 
				joyful mathematics and engaging in deep learning.
				
				
				
					
				Friday, 10/19/18, 9:45-11:15 
				a.m.: Michelle Mikes hosts a panel discussion, 
				
				
				
					Mathematics Leadership in Education and Instruction: 
				Promoting Productive Struggle
				
				
				
					(K-12, College)
				
					- 
					
					
					Dr. Brian Lack, Math Specialist
 
					- 
					
					
					Dr. Brian Lawler, KSU Math Professor
 
					- 
					
					
					Dr. Joanna McGaughy, Elementary Teacher
 
				
				
				
					We are all stakeholders in the education of our students. 
				From the classroom teacher to legislators, how are you promoting 
				mathematical productive struggle in and beyond your class? Join 
				our panel of experts to learn how to pave the way for productive 
				struggle opportunities with our stakeholders at large. Walk away 
				with strategies in promoting productive struggle for success of 
				student learning.
				
				
				
					
				Friday, 10/19/18, 1:00-2:00 
				Michelle Bateman:
				
				
				
					I See, I Hear, I Wonder -- Using Visual Literacy to Ignite a 
				Productive Struggle
				
				
				
					(Grades 6-12) How do we get our students to persevere and 
				make sense of the mathematics when they cannot relate at all to 
				the mathematics being taught? Let's look at how Visual Literacy 
				can be used to foster mathematical understanding and reasoning 
				through thoughtful Math Talk and authentic work products. 
				Through various simulations, participants will leave with 
				tangible activities that can be incorporated in the mathematics 
				classroom to ignite a Productive Struggle.
				
				
					SPECIAL CONFERENCE EVENT
				
				
					Escape Rooms will be 
					available for educators of grades K-2, 3-5, 6-8, and 9-12 on 
					Wednesday, 10/17/18, as a special pre-conference activity 
					from 3:00-5:00 p.m. 
				
				
				
				
					State Superintendent Forum
				
				
					On Thursday, October 18th, GCTM will 
					host state superintendent candidates Richard Woods and Otha 
					Thornton for a live Q&A session. This forum will take place 
					from 11:00-12:00 at Talmadge Auditorium at the Rock Eagle 
					4-H Center. 
				
				
				Click here if you plan to attend and/or if you would like to 
				submit one or more questions for the candidates to address 
				during the forum. 
				
				
				
				
					Interested in becoming a GMC vendor?
				
				
					Please contact Jennifer Peek, Director 
					of Exhibits at 
					jennifer.peek@gctm.org.
				
				
				
				
				
			
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