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Crossroads at the 2012 DR K-12 PI Meeting

John Settlage was an advisor for the 2012 DR K-12 PI Meeting and is currently PI on the DR K-12 project School Organization and Science Achievement: Organization and Leadership Influences On Equitable Student Performance.

Battling isolation is a continual challenge for science and math educators. As a novice science teacher, the closing of the classroom door effectively cut me off from all support systems. Later, as a university teacher educator, my interests in school-based teacher preparation isolated me from campus-bound traditions. And now, as a PI of an NSF project I realize that running a grant-funded project brings new ways to feel alone. Even with a marvelous team, I am “chief worrier” who has to make sure everybody else is making contributions that are satisfying to them and allow us to hit our project goals.

What I often forget in each of these situations is that I am actually not the only one feeling the pressure. The challenge is identifying compatriots and finding ways to help each other. As a science teacher, attending NSTA meetings was one solution. Another networking endeavor was to development an ongoing conference series called Science Education at the Crossroads. In effect, with Crossroads Adam Johnston and I were able to create a support structure that brings together researchers and teachers to collectively strategize about how to overcome challenges within our various work environments.

Crossroads was an experiment the first time it was held at the University of Connecticut in 2005. It has since become a model we have repeated for several years. During the CADRE meeting in June 2012, Adam and I were invited to incorporate the Crossroads model as a set of sessions for Principal Investigators. Just as with Crossroads, the presenters were asked to compose a 1500 word essay outlining their Vexations and Ventures, i.e., challenges and approaches to a solution. During the actual meeting, each presenter was allowed 10 minutes to provide a verbal explanation of the essay followed by 5 minutes responding to clarifying questions. Then, over the next 15 minutes the presenter had to sit back in silence to allow the group to deliberate over the Vexation and Venture. In the closing 5 minutes, the presenter was allowed to join the discussion and offer any comments to the group.

Six PIs presented their work within the Crossroads format. Topics ranged from the challenge of collaborating with co-PIs at geographically distant sites, developing mechanisms for putting significant findings about teacher induction into the hands of schools and universities, and conceptualizing how a network improvement community model might be applied to science teacher education reform. Unlike Crossroads, attendance at these sessions was open to all. This was a chancy proposition because it removed our ability to screen people in an effort to ensure that the deliberations were productive and honest. However, just as with past Crossroads there was a sense of helpfulness and collaboration among the PIs. The conversations were sometimes pointed but never took an aggressive tone. All participants indicated that they found the format to be productive and invigorating.

Our belief continues to be that a Crossroads format is a promising mechanism for reducing isolation among professional educators. A key component is that the presenters articulate their ideas in advance and in writing. You can see those essays on the tables and laps in the accompany picture. Another essential element is identifying a facilitator who keeps track of time, controls turn taking, and serves as an advocate for presenters during the times when they are silent. In truth, Crossroads sessions alone don’t solve all the problems placed before the group. What this format does provide is a forum for discussing process opportunities and adjacent possibilities. It also obliges participants to re-learn how to listen carefully and respond thoughtfully. Removing the competitive aspect and endorsing the value of vulnerability generates a different tone to professional conversations. In many cases, this style of discourse is rehearsed within Crossroads and can then be carried forward beyond the time of the scheduled sessions.

For more information about the Crossroads format, try these resources:
http://www.sciedxroads.org/
http://en.wikipedia.org/wiki/Vexation_and_Venture

John Settlage, University of Connecticut
Adam Johnston, Weber State University

Learning the Language of NSF Proposals

The morning plenary session for Thursday was delivered by Joan Ferrini-Mundy.  I felt like that one of the purposes for this session--while fascinating in and of itself--was to drop hints as to what interests the NSF in terms of proposals.  She made the statement, "NSF would like to challenge you to re-position your current and future work," and then went into more detail as to what she meant by that statement.

Ferrini-Mundy noted the big trends of science in the early 21st century, namely: a "New Era of Science" in terms of the scope of observations possible, the expanded use of experiments, the power of computation, and the rise of "citizen science"; and an "Era of Data and Communications," where there is a great deal of data available and being collected and processed, but that data must also be shared among the scientific community--and outside the scientific community--in a way that makes sense.

She then indicated that it would be important to understand what it is that scientists DO, as the reason that NSF funds education is to increase scientific HUMAN capital (not just scientific capital) in order to build and diversify the scientific workforce and to build a scientific literate society hand-in-hand.  Personally, this is something that excited me and piqued my interest.  Towards these ends, these are the things that Ferrini-Mundy identified as the things that scientists are doing:

 

  • Collaborating across disciplines on compelling problems (communication);
  • Using computational techniques and algorithms to deal with massive data sets;
  • Building infrastructures;
  • Accessing more data than can be analyzed (and drawing on "citizen science");
  • Networking in orchestrated ways to solve specific problems;
  • Formulating new approaches that could not have happened without new technologies.

 

In addition to these goals and practices, Ferrini-Mundy also outlined several driving questions for the "Grand Challenges in Education":

 

  • How does the nation train and develop its workforce?
  • How should we teach and learn in the 21st century?
  • How does the nation create a science-literate society?
  • How should we deploy resources?

 

She also made the distinction between "Disruptive Innovation" (frontier changing, useful 5-10 years from now, and products move "up market") and "Evolutionary Improvement."  Ferrini-Mundy made the point that these two approaches tend to address different problems and questions and develop different frames of knowledge, understanding, and products, but that the NSF is interested in funding both approaches.

Ferrini-Mundy then put forth some challenges for PIs to address:

 

  • Producing high quality evidence of impact (not just checkmarks of success);
  • Using NSF-funded resources at scale;
  • Effective partnering;
  • Telling the story of DRK-12 successes.

I felt like this last point was an interesting one.  Does this mean telling the story to a broad audience?  Does it mean to the community of scientists?  Does it mean to the larger society and public?  The challenge of communication I am really quite excited about.  I believe that this is an area that has been largely neglected but is very important.

 

In what seemed like a direct response to the curriculum development SIG meeting from the previous day, Ferrini-Mundy also talked briefly about the future of curriculum development and implementation.  She challenged developers to consider "cloud questions," such as developing networked ways to create resources to meet environments and needs and to develop a standardized mode of creating learning objects and materials.  In the end, she made it clear that the era of big chunks of funding for huge paper-based curricula is done.

Lastly, Ferrini-Mundy also recognized a challenge that is particular to education research in general and work with schools and classrooms in particular.  She said that it is necessary to "build an evidence base for something that is not built on evidence."  I  see this as a challenge of communication, and figuring out how to get different stakeholders to recognize the value (and values) of the other, and I was heartened to see that the NSF was considering these challenges as well.

I also took a picture of basically the DRK12 logic model (sorry that it's blurry).  It is "attached" to this blog post.

Posters and In-Depth Conversations

A wonderful thing about poster sessions is the ability to really converse and discuss issues and ideas around different projects and perspectives.  Although I did connect with some people because I recognized their names or recognized their work from prior projects and articles, there were a number of posters, projects, and people that I was genuinely did not expect to find to be both interesting and relevant to my own work even if the content area/discipline was quite different from my own.  (I should say that I expected every project to be interesting at some level; it was an unexpected and pleasant surprise to find that so many were directly relevant.)  The format of the poster session really allows you to converse one-on-one with PIs and project directors to find out their thinking processes and procedures for their projects with plenty of opportunities to find areas of overlap.  Because I am "between jobs" (moving from doctoral student to postdoc, east coast to west coast), I didn't have any business cards to hand out.  I did, however, collect a number of them during this first poster session, and I look forward to contacting them.

Advocacy, Curriculum, and STEM Education

For my first "official" DRK-12 session, I attended the CADRE Curriculum Design SIG meeting.  I chose this meeting as a large part of my work as a new postdoc at UC Berkeley through the Lawrence Hall of Science revolves around the design and development of curriculum.  The meeting seemed to be a follow-up from the last DRK-12 meeting.  With the end of the IMD grant program, there is less of an emphasis on the development of educational materials.  The members of the SIG, then, were discussing ways to advocate for curriculum projects.

Much of the discussion centered around three questions:  what curriculum should look like in the 21st century, what are the relationships between curriculum and technology, and what are the role of partnerships in the development of curriculum.  These are really fascinating, interesting, and important questions to be asking, and I hope that I will be able to contribute to the conversation over the coming years.  There was a project officer from the NSF in attendance as well, who welcomed an ongoing conversation on these issues.  I hope that the conversation continues, and that technology is seen as a force to harness in the service of curriculum, rather than the driver it is often made out to be.

Perspectives on sessions I attended at the 2012 DR K-12 PI Meeting

Blogger's note: I was fortunate to attend the PI meeting as a 2011-2012 CADRE Fellow. To participate in the meeting, I opted to blog about sessions. Due to technological issues, my first post is lost in cyberspace. As such, Wednesday is not documented.

Thursday morning, I found myself in Kennedy to listen to a discussion about the National Research Council (NRC) letter report, Successful K-12 STEM Education: Identifying Effective Approaches in Science, Technology, Engineering, and Mathematics. Unfortunately, none of the dozen attendees had read the report, including me. So the audience received a crash course on NRC committees in general and the report in particular. Registered users are allowed free downloads of PDFs for all NRC reports; Successful K-12 STEM Education can be found at http://www.nap.edu/catalog.php?record_id=13158.

The session’s abstract succinctly describes information necessary for one to understand the purpose of the letter report. As a chemistry education researcher working in a chemistry department, I found the report overview intriguing, disturbing, and bursting with potential research ideas! U.S. House Representative Frank Wolf from Virginia requested that a committee of experts be convened to identify and report successful strategies schools and programs employ to train students in STEM. Per NRC requirements, stringent requirements of evidence limited the committee in completing their charge. In other words, not enough research had been published to say conclusively that STEM-focused schools were effective in their practices and schooling in general. More significantly, for research that was available, it was difficult to separate the effectiveness of practices and schooling from selection bias. As described in the abstract, three types of STEM-focused schools exist (selective, inclusive, and career/technical prep). Students may self-identify as interested in STEM, which motivates them to attend STEM-focused schools. Thus, data that suggested STEM-focused schools and programs were effective may be explained not only by the schools’ practices and schooling but also by the types of students who typically attended such schools.

The difficulties the committee found in finding a sufficient literature base disturbed me as an educational researcher, particularly in light of the morning plenary by NSF Assistant Director Ferrini-Mundy, who challenged the audience to provide high quality evidence of impact and to tell the story of DR K-12 successes. Repeated comments were made by people in the session that suggested to me they did not believe the committee had such difficulties finding enough empirical evidence to demonstrate that STEM-focused schools are effective. As the presenter repeatedly explained, NRC has a particular (and I think an appropriate) threshold for what counts as evidence. I found it problematic that four consecutive comments from session attendees began with challenges to the threshold. Before the first hour of the session concluded, the discussion remained quite superficial instead of people having vigorous conversations about how we as a community can contribute to the literature base so that more empirical evidence will exist the next time a committee is convened to probe a this issue. In fact, the take home message from the NRC report was that we need policy and research (e.g., why are these schools “perceived to be” successful?). I wound up leaving prior to the option informal discussion.

When I returned from lunch, I attended the Urban Advantage: Formal-Informal Partnerships to Improve STEM Teaching and Learning in Middle School Science Classrooms. Urban Advantage (http://www.urbanadvantage.org/) has programs in many U.S. metropolitan cities including Miami, Florida and Boston, Massachusetts. The program began in New York City. PIs from projects in NYC (http://www.urbanadvantagenyc.org/) and Denver (http://www.urbanadvantagedenver.org/) presented context, challenges, and preliminary results from their current DR K-12 funded projects as part of a combined panel. Urban Advantage partners schools and school districts with local informal institutions like museums (art, history, science), botanical gardens, zoos, and aquariums. Teachers receive professional development, and students engage in scientific research activities (e.g., collecting water samples from local rivers, observing animal behavior at the zoo) over several weeks. Students at both sites receive unlimited vouchers to collect data after field trips; the vouchers can also be used for students to take family members.

Sites had challenges that were site-dependent and site-independent. Denver, for example, presented data that a number of students who wanted to use their vouchers did not because family obligations prevented a parent being available on the weekends to accompany students. Unlike NYC, public transportation is less readily available in Denver, so students relied on transportation from an adult. New York City Urban Advantage has historical data from state regents science standardized exams that students who participate in Urban Advantage do better than students who did not participate. Denver is collecting data on their participants to see if a similar outcome of exam scores is observed. Independent of site, both groups of researchers described the logistical challenges of coordinating field trips and implementing teacher professional development. Panelists stressed the importance of developing relationships with participants (i.e., schools, districts, other informal education partners, students, and parents). The depth of discussion was stimulating, and the project’s personnel were clearly committed to exposing students to STEM practices and careers. Efforts are in progress to follow up with students beyond eighth grade to understand the long-term effects of participation in Urban Advantage. Also, the New York site is beginning a complementary program for pre-service teachers coordinated by the American Museum of Natural History.

Friday morning, I attended a working group session (Instructional Tools for Supporting Science Inquiry Practices and Academic Language Development for English Language Learners) and a panel discussion on using learning progressions in the classroom (Using Learning Progression Research in Classroom Sessions). Researchers from the College of Education of the University of Georgia provided packets of information that contained materials that were created as a part of the Language-rich Inquiry Science with English Language Learners (LISELL) Project. A brief PowerPoint introduction about the project was given before presenters explained their goals of the working group. In small groups, audience members were to choose one of three lesson starters (which were intended to be used as warm-up activities to start the class or to fill time at the end of a class period) that highlight a LISELL science inquiry practice: Explaining cause and effect relationships; coordinating hypothesis, observation and evidence; and controlling variables in experiments. Each starter set contained information for teachers (e.g., goals of the inquiry practice, necessary science content, and operationalized definitions of vocabulary), and 6-10 starter lessons with guiding questions. The audience was given about 15 minutes to read through the starter set and identify areas that were strong and those that could be improved.

The main critique from the audience, almost all of whom had experience working with ELLs, was that some lesson text was dense for students learning not only science but also learning English. As one familiar with the notion at the tertiary level of science as a second language, my impression of the challenges such dense language posed to ELLs is that they were really learning two languages simultaneously! Methodologically, the conflation of learning science and learning English must be quite challenging when designing projects and analyzing data. Suggestions that were offered to the presenters included spreading the 10 minute lessons to lessons that lasted an entire week and proposing that teachers choose a “focus sentence” to dissect with students. Overall, the criticisms were constructive and presenters provided additional context in some cases to explain why some decisions were made given the constraints and affordances of the school districts in which LISELL operated.

I rather enjoyed the working group because of the vigorous discussions in which the audience and presenters engaged. It’s uncomfortable to be vulnerable to a group of strangers as they critique work that obviously involved great effort, but I think that is how we grow as communities of educational researchers and scientists. Sometimes we need to ask opinions of knowledgeable people who don’t have a dog in the fight. I really appreciated that people who offered a criticism either offered a suggestion to address the criticism or a compliment prior to the criticism.

Following a diversion to have another bowl of the awesome granola, I arrived at the learning progressions in the classroom session. I first learned about learning progressions in graduate school, and as new faculty this fall semester, I was very interested to learn how years of research on learning progressions was making its way into classrooms.

Five presenters provided brief introductions to their projects followed by a few minutes for questions and answers. A panel Q&A followed the final project presentation. Speakers talked quickly, so it was difficult to keep up for blogging purposes. But two things stuck with me: (1) performance expectations in the framework for the Next-Generation Science Standards (NGSS) can be a powerful tool to develop curricula and (2) teachers want to grade formative assessments that were not intended to be graded. One talk described performance expectations defined in the framework for NGSS as “fused knowledge”, that is the combination of content, scientific practices, and cross-cutting concepts. The framework of fused knowledge provides a useful tool for the researchers to identify content of interest, to construct performance expectations, and to design assessments of students’ understandings of content. During the whole-panel Q&A, there was some discussion about the appropriateness of the term “fused knowledge”, as opposed to say, “integrated knowledge”. The presenter conceded that a better term may exist but reiterated the point was to combine content, practices, and concepts.

The part of another talk that stuck with me also had to do with assessment. Rubrics were described as tools that educators use to count points by adding and subtracting. Such tools limit  progression (LP)-based classroom practices related to formative assessments. LPs have discreet, empirical levels; students can demonstrate the knowledge or not. The notion of “productive” levels was compelling to me. Responses to questions that are productive show personal meaning to students and serve as an effective transition between levels. Yet, the system of grading students constrains the implementation of LP-based tools. Such constraints greatly influence teachers’ beliefs, and I wish I had thought to ask about if and how panelists’ projects addressed teachers’ beliefs. It had been a long meeting.

Finally, to close the meeting, the plenary at lunch was quite provocative. The talk began with a story about a “dream” involving rabbits, a log, and an elephant. One rabbit made futile attempts to move a massive log. Even tens of thousands of rabbits were unable to move this log. Finally, an elephant appeared in the dream, and the speaker woke up. I doubt the dream was real, but the point was that rabbits, a log, and an elephant were metaphors for (science) educational researchers, the K-20 educational system, and disruptive innovations, respectively.

The allegory was powerful to me. As researchers, we focus on small areas and consequently, small advances in educational reforms are much more common than large, disruptive innovations. The spark the speaker wanted to leave the audience with was that we have to address impediments to disruptive innovations: structural barriers (e.g., promotion and tenure process that does not reward taking risks in teaching and/or research), skeptical stakeholders (e.g., educators with a “if it ain’t broke” mentality), and unscalable products (e.g., curriculum that is optimized for less than all students). To the last point about scale, the point was made that scale does not just mean increase the unit of research (e.g., students, schools, districts). Several examples of disruptive innovations that employ technology to optimize learning for students at all ability levels were provided in the PowerPoint.

I personally appreciated the plenary. Reproducing rabbits is literally and metaphorically easier than reproducing elephants, about one month for rabbits and two years for elephants! However, as mentioned several times during the meeting, the current system, whether school districts and boards, university tenure and promotion committees, and even the NSF, rarely provide the time to reproduce elephants. Having been to two conferences during June and reading the Discipline-based Educational Research (DBER) NRC report released late May, the drumbeats for such structural change are becoming louder, and I am hopeful that the DR K-12 and DBER communities, particularly tenured faculty, accept the charge to move the log.

On Being Inducted into the DRK12 Program

As a CADRE Fellow, one of my tasks at the DRK-12 PI Meeting--in addition to making new connections and learning about the projects that are being funded by the DRK-12 program--is to blog about the sessions that I attend.  The first day was a real interesting one, and this is the first of my posts on my experiences.

I have learned that given the scheduling of the PI Meeting, past fellows had met at the beginning of their fellowship while our cohort is meeting face-to-face at the end.  Since we have had numerous phone conferences together, ranging from publishing to applying and reviewing grants, it was with great anticipation that we met for the first time in-person so that we could, as many fellows put it, "put a face to a voice."

So rather than marking the beginning of our induction in the DRK-12 program and the CADRE community, this meeting marks a milestone for us.  At our luncheon we all met each other with our PIs and discussed issues of embarking on a career funded by grants in academia and non-profit research and development.  From the information I was able to pick up as well as the relationships I was able to strengthen in person, I look forward to continuing on this trajectory.

 

On becoming the next new smartphone: The life and times of educational innovations

We all tend to recognize innovation when we see it. It’s not just the development of new products and services. It’s the sort of thing that crosses boundaries once faced and that takes the field beyond where it’s previously been. It introduces new ways of thinking about old problems, and may even bring to light issues never before considered. But as keynote speakers Sue Allen and Joan Ferrini-Mundy emphasized the first night of this year’s DR K-12 PI meeting, even this newness contributes to only part of the success of an innovation—the other part is sustainability. The sustainability of innovation underscored the theme of their presentation, Crossing Abysses. By abysses, Allen and Ferrini-Mundy meant the gap between funders, researchers, developers, and their audiences. The gap is not, as the recent PCAST report suggested, due to our emphasis on research at the expense of development. In fact, we do attend to issues of processes, models, and tools in development. Rather, as Allen and Ferrini-Mundy insisted, the problem is that we lack a language to describe how our development efforts get taken up at a wider level—how our impacts move beyond singular research publications and are sustained in the communities they intend to serve.

What may hinder us is that we consider ourselves foremost as researchers and educators. We value the more abstract impacts our products have on learning, on policy, and on infrastructure, and so we struggle to represent ourselves to a funding agency that rather views our ideas as financial investments. And when support for our ideas depends upon the promise and evidence of their commercial success, we come to face all the same challenges as commercial product developers. Suddenly, such terms as “marketability,” “product uptake,” and “customer loyalty” become relevant and, suddenly, we must reconcile these vastly different self-representations, which keeps our efforts from being recognized by those who would fund them and prevents us from actualizing their value.

Abyss number one: Communicating the value and success of our innovations to stakeholders. 

To begin, Allen and Ferrini-Mundy suggested we must decide how innovation looks in a program such as DR K-12, if it is not the same as commercial innovation. How do we demonstrate progress compared with our commercial relatives? And what should count as evidence of the success of a DR K-12 product, if it is different from that of a commercial product? As Allen and Ferrini-Mundy argued, we need a new language to describe our efforts, because terms such as promotion, uptake, and adoption are not appropriate for what we do. But I will return to this issue later.

Before Allen and Ferrini-Mundy spoke that evening, I found myself sharing a dinner table and conversation with two evaluators of technical support. If, as you read this, you share the same blank expression at this term as I had at the time, you can hardly be blamed. No doubt, all would agree that evaluation is to the success of a research and development project what assessment is to the success of student learning. But where researchers and developers tend to position themselves at the forefront of a project, evaluators typically work behind the scenes. They check that decisions are justified and that actions have the impact intended; and they suggest ways to improve on the next round, packaging all in a neat report that regrettably few people beyond the project read. And where aspiring researchers have access to many public role models, evaluation is a profession someone tends to fall into after a meandering string of pursuits. In other words, a career in evaluation is not typically sought with planned purpose but rather is discovered by chance.

Along the route to becoming an evaluator, perhaps there is an experience of frustration over a lack of accountability in the course of research and development projects. This might be followed by realizing the necessity of taking stock of progress and of delivering a clear story of lessons learned for posterity. Eventually, it dawns upon the would-be evaluator that substantial impacts on educational innovations can be made through evaluation, by overseeing their progress, ensuring that expensive decisions are cross-checked and justified, and disseminating reports so that future efforts can pick up where others left off. In fact, as my dinner companions confided, they wished more people were aware of what evaluators did and of how their skills could help improve research and development projects.

As it so happened, one of my two dinner companions was a new PI of a project evaluating the effectiveness of interactive whiteboards in mathematics classrooms in the UK. His major finding so far? The whiteboards were not being used. Short of actually causing damage, neglect is surely the worst fate an innovative idea can suffer. 

This conversation, and the meeting’s theme, Crossing Abysses, set the tone of the next few days. In the evenings, I wandered between sessions and through the ballrooms, decked to showcase promises of innovation—of social games that would teach a generation of more politically conscious consumers; of programs that would place the power of large datasets into the hands of middle school students; of hand-held data-capturing devices that would turn the world into a laboratory and encourage children to peer through scientists’ eyes. Here were the projects the NSF deemed worthy financial investments. And, certainly, the air around them was tangibly charged with hope and expectation, as veterans and newbies alike excitedly exchanged their visions for righting the wrongs in the world. But an investment is always a risk, and I could not help but also feel a tinge of uncertainty at the lifecycle of these innovative ideas. What, in two to five years’ time, would be their fates?

But back to my dinner companion. Perhaps, I suggested, the interactive whiteboards were not being used because the appropriate needs analysis was not done beforehand—those crucial extra steps taken to identify the end users’ needs and to determine how they might best be addressed. Perhaps the whole idea of interactive whiteboards was dangerously pushed by seductive new technologies rather than driven by any genuine need of the audience. At least in other situations, this would explain the mushrooming of useless gimmicks, rather than useful tools.

A needs analysis is one thing, the evaluator said, but another is that the benefits of the technology were not properly communicated to the teachers. Purchases were made by the techies of their departments, eager to try the next best thing. But teachers’ priorities are far more practical and their practices deeply ingrained in what’s worked in the past. Overwhelmed as they are by the everyday pressures of classroom teaching, they sometimes need help thinking outside the box. In teachers’ hands, these new toys were nothing more than expensive chalkboards, often not used at all.

This leads to abyss number two: Communicating innovation to end users.

Here, the difficulty for we researchers and developers is in balancing our place ever at the forefront of innovation, even as we respond to the everyday needs of our audiences. On this note, Allen and Ferrini-Mundy proposed gathering a group of teachers to be initial test beds of new products as they are developed. This way, we can be sure to align our ideas with the needs of our audience before too much effort is invested in trying to be the next new thing.

But if we’ve learned anything from the rapid spread of modern technology, it’s not simply that we don’t know what we need until we see it; it’s that sometimes, we must be taught to need it. Consider the current ubiquity of smartphones, microwave ovens, credit cards, and dishwashers. No one, protest now as they may, really needed these products. In fact, it’s not inconceivable that the initial reaction of some was resistance to accommodating these products into their habits. What we did need, however, was for marketers to tell us we needed them, and why. And now that we have them, it’s hard to deny that these products do make our lives better. Likewise, interactive whiteboards may very well be the next smartphone or dishwasher, as may be educational social games and hand-held data-collection devices designed for middle schoolers. The problem may be that teachers just don’t know it yet. Moreover, researchers and developers haven’t yet found a way to convince them.

This brings us back to abyss number one: The challenge of reconciling our dual identities as educational researchers and as product developers worthy of financial investment. Again, the solution proposed by Allen and Ferrini-Mundy was to find new terminology to distinguish what we do from commercial product developers. Indeed, appropriate language is important if our funding agencies are to better recognize the value of our innovations and the successes of our efforts. But while we like to believe that we have nobler priorities in supporting learning, we also face the same challenges of commercial product developers. Regardless of the terms we use, we must still market our products to consumers; we must persuade stakeholders of their worth; and we must promote their adoption among wider audiences. And so, even as we seek to distinguish ourselves as developers of educational rather than of commercial products, we may do well to also count the ways in which our efforts are similar. It may be that to succeed as commercial businesses requires that we think of ourselves in their terms.

Consider the potential: What if we took a page from companies such as Apple, and alongside theories of learning and instruction, we allowed our designs to be guided by principles of aesthetics and user experience? What if we promoted them according to product attachment theory? Would doing so really compromise the educational integrity of our work? Would an effort to market our products in the manner of commercial developers really amount to selling out? And if ultimately, these strategies result in such innovative ideas as interactive whiteboards becoming usefully integrated into teachers’ instructional practices, as well as in their sustained uptake among broader communities of learning, would these concerns really matter?

Even in considering these possibilities, it becomes clear that the skills of evaluators, such as those who were my dinner companions that first evening, are shamefully overlooked in our efforts. Evaluators may well be the ones to bridge the abysses between researchers, developers, stakeholders, and audiences. But perhaps we may all do well to come to the same realizations as evaluators did when they first fell upon their professions—that is, to become aware of the broader reaches of our projects within and across communities, over time, and in addition to our own places and roles within them. Not only might this help us find better ways to communicate our skills and contributions; it may also help us take advantage of the skills of others; to learn from those embarked in similar ventures; and to ensure the sustainability of our innovations.

My First PI Meeting

Participating in the 2010 DR K-12 PI meeting was an informative, inspiring, and unforgettable experience. I have never been so actively involved in an academic conference. I had numerous opportunities to interact with professionals of diverse research backgrounds of STEM education in various meaningful ways. What I heard and saw in the meeting have pushed me to think hard about the meaning and role of knowledge, language, and learner in STEM educational research projects.

First, I wonder how we should view and treat the existing knowledge generated by our research. What is our most current knowledge about STEM education? How many kinds of knowledge have been explored? To what extent does this body of knowledge have a positive influence on real teaching and learning? How should both researchers and policymakers respond with knowledge to challenges grown within certain social, cultural, and historical contexts? How should teacher preparation and education programs utilize this knowledge?

Second, I wonder what could be the fairest way to view and treat children who are not yet proficient in English in the STEM research studies. How we view these children can significantly affect the reasons why we include them in our research, and how the findings will be interpreted and implemented. Throughout the history of education, a variety of terms have been used to describe or characterize these students, such as limited English proficient (LEP), language-minority, culturally and linguistically diverse (CLD), English as a second language (ESL), second language learners (SLLs), heritage language speakers, bilinguals, and emerging bilinguals. In NSF-funded projects, they are usually referred to as English language learners (ELLs). However, the term ELLs carries negative connotations. It consists of “English” and “learners,” which tends to lead people to think of ELLs as “one-dimensional on the basis of their limited English proficiency” (Short & Echevarria, 2004/2005, p.9) and simultaneously to ignore the fact that those children usually are emerging bilinguals, representing myriad national, cultural, and linguistic backgrounds with a huge range of abilities and needs.

Finally, among a small sample of innovative projects I observed, I noticed there were usually some teacher or student participants who were regarded (measured) as low performers. I wonder how we should interpret this phenomenon and deal with the challenge? What can we learn from those “negative” cases? 
Short, D., & Echevarria, J. (2004/2005). Promoting academic literacy for English language learners. Educational Leadership, 62(4), 8-13.

Learning Progressions - A Help or Hindrance?

Recently, I attended the DR K-12 PI meeting in Washington, D.C., and was surprised to hear so much controversial discussion surrounding the development and use of learning progressions. In my work at Michigan State University, I have been immersed in learning about what learning progressions are, how they can be used by teachers and teacher educators, and their potential to positively impact students’ learning—all in science education. For the most part, the conversations I have been a part of (up until this point) have always cast learning progressions in a positive light. However, I have started to wonder about their potential drawbacks and limitations.

To be upfront, I am much enamored of the research that shows how learning progressions can be used by teachers to pinpoint students’ understanding of various science concepts and to assess their own teaching strategies and behaviors. The development of learning progressions for various science topics and concepts seems to be a promising way to help teachers, especially those with little science background or who teach multiple science topics, learn about how students think, and point to productive directions that teachers would want to move students towards (the same can be said about teacher learning progressions). However, I heard many conversations where participants asked questions about whether there is even such a “thing” as a learning progression—that is, are there really patterns and stages for how students think about particular scientific ideas (or how teachers learn how to enact specific teaching strategies or methods)? Does the notion of learning progressions even make sense, or is there something else that would more accurately represent students’ thinking/teachers’ practice? If so, what might that look like? 

I look forward to continued conversations on this matter and hope to hear from others who have been pondering similar questions.

Polish and Parents: Reflections on the 2010 DR K-12 PI Meeting

The two memorable revelations for me of the 2010 DR K-12 PI meeting were the exceptionally polished software products on display and the lack of discussion about parental responsibility for learning. 

Speaking as a software developer, the quality of the software products was an awakening in that projects are no longer content to create materials that are not commercial production quality. This is a really heartening development because, after all, if our goal is to make the most difference to the most number of students ,then we must look beyond our conventional avenues of dissemination and distribution. As an aside—“publisher” should not be a dreaded word—why should the avenue of dissemination be treated like a condition to be tolerated rather than a partner to be embraced? The presence of the more than a couple of "research products" in the App Store is a good start. Perhaps CADRE can do well to establish a SIG that focuses on product development. Often, when we are presented with the product of a research project, as an emerging researcher you wonder what went into this product. Similarly, when a research project creates a software product, for other projects it is beneficial to be able to discuss issues of how to recruit programmers, graphic designers, and project managers on an NSF budget where you cannot match an industry salary. It was very apparent, at least in a couple of the projects, that the software was not the output of a technically savvy grad student. So, I'd love to see not only more such products emerge but also see a community develop that provides support to projects creating software products.

To move onto my second revelation, I want to begin by saying that at education conferences, I avoid sessions that focus on equity. Equity for me is a topic that should deal with teachers working in heterogeneous classrooms where the heterogeneity is a function of differences in learning styles of students rather than of differences in home environments and parental engagement. It is really strange to me that in this climate of strong calls for teacher accountability there is not an equivalent call for parental accountability. It is not a 10th grade math teacher's job to deal with the fact that a student in her class is failing in math because they cannot read the content—that may seem harsh but I am sorry, that's just not her job. Cathy Black, chancellor of schools in New York City, when touring schools that work said, "Where there’s a strong and effective principal, where parents are committed, you have great schools.”

Why is it OK for a parent to send a child to school with little or no preparation in terms of motivation to learn but not OK for that child's teacher to send that child back home with little or no learning? What’s true of Shanghai's schools, which just outshone American schools in international testing, is also true of the schools that turn out the best (top 2%) talent in Asian countries: families will go to great lengths to ensure that the children have everything they need for doing well in school, and students will put their lives on hold to do well in school. There are no discipline issues; students are in school for exactly one thing and that is to learn. This system of schooling does stifle creativity, and it does ignore those students who cannot keep up, but on the whole, the system raises the level of respect that schools command amongst students. In story after story from teachers, I have noticed that there is a direct correlation between parental involvement and student success. 

Sure, it is the job of a school to teach, but then it is the job of parents to provide a safe and encouraging family that prepares the student to learn. Somewhere in all this rhetoric about success for all and differentiated instructions and constructivist learning, we are unfortunately in a state where we are almost afraid to ask parents to hold up their side of the social contract. 

Access to challenging and engaging mathematical problems for students with mild disabilities

As a researcher who studies mathematics interventions for students with mild disabilities, the principles of universal design presented in the SmartGraphs software by the Concord Consortium were encouraging to me. Considering the difficulties that students with learning disabilities in mathematics and students with mild intellectual disabilities have with working memory, the multiple, user-friendly representations of math and science concepts presented in this software could potentially be valuable for these students. The software used concise text as well as tables and graphs that could effectively help these students organize and store information. Students with working memory deficits often lose important information from memory storage as they process text with multiple ideas. With key information stored and organized in tables and graphs in the software, students with deficits in working memory have a much better opportunity to process, understand, and solve complicated, multi-step problems. Unfortunately, curricula sometimes do not follow this format, and we lose sight of the true reasoning and processing abilities of students with mild disabilities. These students sometimes appear to be incapable of solving complicated problems when they are actually struggling due to working memory issues, often related to excessive text and a lack of user-friendly representations of concepts, rather than the ability to use reasoning skills to solve challenging problems. By following the principles of concise text and pictorial, graphical, and schematic representations of concepts, students with mild disabilities can be given the access they deserve to challenging and engaging mathematics.

 

Research through Partnerships

A primary goal of education research is to inform and benefit the everyday work of practitioners; yet, often it is hard to establish and maintain partnerships between groups. What is so difficult about building relationships to bridge this divide?

Teachers and administrators have demanding schedules and responsibilities, so it is hard for schools to take the time and energy to work with researchers. However, by establishing partnerships, schools can gain invaluable resources that can ultimately help them do their jobs more effectively. 

Researchers want to be able to control situations as much as possible. However, by working completely in context, and thus not having control, researchers are provided the opportunity to situate their problems and come to a realistic understanding of possible solutions. Great difficulty in partnerships arises when balance between the parties is lost, or when there was never a chance for balance to exist. What elements are essential to keep in mind before, during, and after a practitioner/researcher partnership?

Before: Take steps to ensure that the relationship and project are feasible and realistic. When writing a proposal, you should essentially already be doing the work. Consider whether the participants are ready for change, and whether there is infrastructure that has the potential to support and sustain the work. Examine the relationship structures that are established at various levels of the project to determine how durable they are and the extent to which the project can move forward if structures change.

During: Although most partnership research work physically takes place in schools, the onus is not on the schools to drive the project; researchers must take responsibility for adapting to the existing atmosphere. Furthermore, it is the obligation of the researcher to demystify the research process: to be clear about what the plan is, and what possible outcomes are. Consequently, practitioners should be able to benefit from their participation rather than feel as though they are being used by the researcher. Although it is hard work, by being explicit in your communication, by keeping organized documentation of progress, and by avoiding making assumptions, researchers and practitioners can move forward together in a positive light.

After: As the research project comes to a close, the partnership does not similarly dissolve. Practitioners are looking for both closure through reflection and for what the next steps are. Researchers should be clear in communicating what follow-up they will provide and whether there are future projects for their partnership. Sustainability, scale, and dissemination of the resulting knowledge or product of the project are to be considered at every stage of the research process.

Partnerships must be developed over time, at a local level, through trust in each other. What have you learned from your experiences in partnerships with schools? Are there components that are necessary in particular conditions? By purposefully examining the relationships situated within our work, meaningful partnerships can be developed to build the bridge between researchers and practitioners.

This response was informed by the presentations and discussion at the session on “Fostering Knowledge Use in STEM Education through R&D Partnerships with Schools and School Districts” at the DR K-12 PI Meeting on December 2, 2010.

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