the walls of the academy. The wall is defended by the idea that not only do experts possess knowledge beyond the ken of lay people, which is trivially true, but that there is an unbridgeable gulf between the two. The aim of this presentation, then, is to discuss the possibility of building a bridge between the ordinary educated citizen and the expert. The tool for this is the famous effort to disseminate scientific literacy, or more generally, any specific (...) sophisticated literacy. The subject-matter of this presentation, then, is scientific literacy, and the question is, how can it best be disseminated? Now the word "literacy" in expressions like "scientific literacy" and "computer literacy" may be meant literally or metaphorically. As I will try to show later on, if time permits, profound ambiguity and ambivalence reside here. The significance of all this remains to be seen. Let me first contrast any specific sophisticated literacy with elementary literacy, and center first on the elementary. It is of course the one that is denoted by the first two of the three r's, reading writing and arithmetic, the three skills teachers of the lower grades of elementary schools are supposed to transmit to their charges. Before discussing scientific literacy or computer literacy or any other specific sophisticated literacy, I will discuss this elementary literacy. My suggestion is that by advancing somewhat our knowledge of elementary literacy we can see what is specific to any specific literacy, however sophisticated it may be, but that there is more profit for understanding the nature of elementary literacy by examining specific cases. My thesis will be that any literacy, elementary or specific, is best achieved by guided, aided experimentation: the trainee should learn by trial and error.. (shrink)

""This is an excellent source of ideas on using the media to enrich science teaching and engage pupils.

Programmatic concepts have elements that point in a valued direction or name a desired goal. We provide a detailed analysis of the nature of programmatic concepts and cite examples of the programmatic elements found in conceptions of scientific literacy. Next we describe what values underlie these elements and what theories of value might be brought to bear in assessing them. We present an analysis of approximately 70 conceptions of scientific literacy found in the literature since the (...) year 2000. We identify the goals that each of these conceptions of scientific literacy implies and uncover the programmatic elements that are used to justify these goals. Our purpose is to present a sufficiently wide range of views to have a good representation of goals and programmatic elements. Third, we point to a number of pitfalls in any attempt to make preferential selections among the programmatic elements of conceptions of scientific literacy. (shrink)

It's Still Debatable! encourages scientific literacy by showing you how to teach the content and thinking skills K- 5 students need to explore real-world questions like these: - Is football too dangerous for kids? - Do we need zoos? - Should distracted walking be illegal? At the core of the exploration is the Socioscientific Issues Framework. It uses debatable, science-related societal questions, or socioscientific issues, to address science content, help children learn to apply the content, and encourage them (...) to become informed citizens. The book supports the Next Generation Science Standards; links to the Common Core State Standards, National Curriculum Standards for Social Studies, and C3 Framework; and is developmentally appropriate for diverse elementary classrooms. It also includes a chapter especially for use in methods courses and professional development programs. The framework gives students practice in the research, analysis, and argumentation necessary to grapple with difficult questions with roots in life, physical, Earth, and environmental science. After introducing the framework and explaining how it supports the standards, the book shows you how to implement the concept through 14 lessons. Because the book is specifically for elementary grades, the author made it a teach-ready resource that integrates science into your packed school days. You get clear and accessible background information, practical guidance on how to use the lessons, and developmentally appropriate assessments and handouts. You even find out how to develop your own socioscientific issues curriculum. (shrink)

REVERE Award Finalist, PreK-12 Learning Group, Association of American Publishers! " Functional scientific literacy requires an understanding of the nature of science and the skills necessary to think both scientifically and ethically about everyday issues." -- from the introduction to It's Debatable! This book encourages scientific literacy by showing you how to teach the understanding and thinking skills your students need to explore real-world questions like these: - Should schools charge a "tax" to discourage kids from (...) eating unhealthy foods? - Should local governments lower speed limits to reduce traffic fatalities? - Should pharmaceutical companies be allowed to advertise prescription drugs directly to consumers? At the core of the exploration is the Socioscientific Issues Framework. The framework gives students practice in the research, analysis, and argumentation necessary to grapple with difficult questions and build scientific literacy. After introducing the concept of the framework and explaining how it aligns with the Next Generation Science Standards, the book shows you how to implement it through seven units targeted to the elementary, middle, and high school levels. You even find out how to develop your own socioscientific issues curriculum. Both practical and content-rich, It's Debatable! doesn't shy away from controversy. Instead, the authors encourage you and your students to confront just how messy the questions raised by science (and pseudoscience) can be. After all, as the authors note, " The only way for our students to be prepared for participation in societal discourse is to have practice in their school years, and what better place than the science classroom?". (shrink)

REVERE Award Finalist, PreK-12 Learning Group, Association of American Publishers! " Functional scientific literacy requires an understanding of the nature of science and the skills necessary to think both scientifically and ethically about everyday issues." -- from the introduction to It's Debatable! This book encourages scientific literacy by showing you how to teach the understanding and thinking skills your students need to explore real-world questions like these: - Should schools charge a "tax" to discourage kids from (...) eating unhealthy foods? - Should local governments lower speed limits to reduce traffic fatalities? - Should pharmaceutical companies be allowed to advertise prescription drugs directly to consumers? At the core of the exploration is the Socioscientific Issues Framework. The framework gives students practice in the research, analysis, and argumentation necessary to grapple with difficult questions and build scientific literacy. After introducing the concept of the framework and explaining how it aligns with the Next Generation Science Standards, the book shows you how to implement it through seven units targeted to the elementary, middle, and high school levels. You even find out how to develop your own socioscientific issues curriculum. Both practical and content-rich, It's Debatable! doesn't shy away from controversy. Instead, the authors encourage you and your students to confront just how messy the questions raised by science (and pseudoscience) can be. After all, as the authors note, " The only way for our students to be prepared for participation in societal discourse is to have practice in their school years, and what better place than the science classroom?". (shrink)

This article investigates the biopolitical dimensions that have grown out of the union between biocapitalism and current science education reform in the US. Drawing on science and technology study theorists, I utilize the analytics of promissory valuation and salvationary discourses to understand how scientific literacy in the neo‐Sputnik era has deeply involved educational life in biocapitalist circuits of exchange and production. I lay out this emerging terrain of ‘futuricity’ through a biopolitical analysis of the National Academies highly influential (...) policy recommendation on science education, Rising Above the Gathering Storm as well as the Association of American Universities' National Defense Education and Innovation Initiative. Here it is argued that the educational subject usually seen as a site of human capital investment can better be understood as a ‘biovalue’ in at least two senses: the educational subject's body as a site of investment and as an extractable source of value directly related to the larger globally competitive regime of the rapidly growing bioeconomy. I conclude my analysis of the vital politics at play in the biocapitalist articulation of science education with an alternative model of scientific literacy that is based in what I call biodemocratic practices. I explore such a rereading of scientific literacy through the example of the GrowHaus—a sustainable urban farm situated in a marginalized community in a major US city. The GrowHaus offers a model of scientific literacy that rejects extractive ethics associated with biocapitalist production and instead promotes a sustainable and socially just practice of science. (shrink)

Science literacy is frequently touted as a key to good citizenship. Based on a two-year ethnographic study examining science in the community, the authors suggest that when considering the contribution of scientific activity to the greater good, science must be seen as forming a unique hybrid practice, mixed in with other mediating practices, which together constitute “scientifically literate, good citizenship.” This case study, an analysis of an open house event organized by a grassroots environmentalist group, presents some examples (...) of activities that embed science in “good citizenship.” Through a series of vignettes, the authors focus on four central aspects: the activists' use of landscape and spatial arrangements, the importance of multiple representations of the same entity, the relational aspect of knowing and becoming part of a community, and the insertion of scientific into moral discourse, resulting in what they call a “stewardship triad.”. (shrink)

Postmodernist proposals for transforming science education would not only emphasize connections between science and society but also radically alter our conceptions of the value of experimentation and disinterested inquiry. I propose alternative loci for the study of science and society issues and argue for a less utilitarian vision of science literacy.

Introduction. On February 28, 2023, on the basis of South Ural State University, with the support of the Research Center for Monitoring the Prevention of Destructive Manifestations in the Educational Environment (Chelyabinsk Institute of the Develop- ment of Vocational Education), there was held a regional scientific and practical conference “Preven- tion of destructive practices in the digital environ- ment and measures to improve the digital literacy of students: presentation of research results and the formation of an expert community (...) in the field of social sciences and humanities in the region”. The purpose of the study is to present the key ideas from the reports and the results of the con- ference. Methods. In order to present the key ideas from the reports, the authors use general scientific methods, such as analysis and synthesis, induction, deduction, abstraction. Scientific novelty of the research. In the current discourse of the conference, digital was defined as a new human habitat, which contains the potential for human growth and at the same time anthropo- logical and social risks. Results. In meta-reality, between real and virtual, only monitoring of public opinion on existing and potential social threats is not enough. In this case, sociatria can be a practical response to digital threats and risks. Conclusion. In the current digital environment, constructive practices of individual social subjects and social groups coexist with destructive practices. Sociatria can become a social response to the issue of monitoring, preventing and combating digital threats, and digital literacy is an anthropological response that should be created in the educational environment. (shrink)

Drawing from literature in the social studies of science, this paper historicizes two pivotal concepts in science literacy: the definition of life and the assumption of objectivity. In this paper we suggest that an understanding of the historical, discursive production of scientific knowledge affects the meaning of scientific literacy in at least three ways. First, a discursive study of scientific knowledge has the epistemological consequence of avoiding the selective perception that occurs when facts are abstracted (...) from the historical conditions of their emergence. Second, a discursive approach to scientific knowledge can also be an example of science‐as‐exploration. Third, literacy and discourse studies contribute insights that alter assumptions about pedagogical appropriateness in science education. The paper concludes by suggesting that when science literacy includes the historical production of scientific knowledge, it can thereby extend the possibilities for what can be thought, studied and imagined in the name of science education. (shrink)

Drawing from literature in the social studies of science, this paper historicizes two pivotal concepts in science literacy: the definition of life and the assumption of objectivity. In this paper we suggest that an understanding of the historical, discursive production of scientific knowledge affects the meaning of scientific literacy in at least three ways. First, a discursive study of scientific knowledge has the epistemological consequence of avoiding the selective perception that occurs when facts are abstracted (...) from the historical conditions of their emergence. Second, a discursive approach to scientific knowledge can also be an example of science‐as‐exploration. Third, literacy and discourse studies contribute insights that alter assumptions about pedagogical appropriateness in science education. The paper concludes by suggesting that when science literacy includes the historical production of scientific knowledge, it can thereby extend the possibilities for what can be thought, studied and imagined in the name of science education. (shrink)

As one of the Sloan Foundation's original New Liberal Arts grantees, Williams College has developed a variety of approaches to improve quantitative reasoning and technological literacy, including creating interdisciplinary courses, computer and mathematical workshops, and an STS program. Further development, however, depends critically on what technological literacy may mean in a liberal arts context. Attempts to promote technological literacy, whether in liberal arts settings or not, are likely to founder unless they take account of the complexity and (...) context dependent nature of technological literacy, as well as its history, and its relationship to scientific literacy. (shrink)

In modern times a gap has appeared between the arts of history and literature, and the sciences of historicism and criticism. Many modern critics, historians, and teachers of literature and history (and even many so‐called authors of literature) have welcomed, or at least complied with, the “scientification” of their arts, resulting in widespread illiteracy with regard to literature and history. The solution to this problem lies in a (re‐)investigation of how the art of literature teaches us the truth. I maintain (...) that the lifeblood of literature is the set of common joys and griefs, the common blessings and sufferings, of mankind. Without a communication of these passions as passions with the result of a transformation or shaping of the soul – without a mimesis, as the Greeks would say –across the boundaries of tribe, race, gender and era, there is no literature; and no literacy. Using a scene from Solzhenitsyn's First Circle, I argue that these passions are part of the truth (or falsity) of any story involving human beings. So literature and history would both be restored if the writers, readers, and teachers of each developed a deeper concern for the whole truth. (shrink)

Literacy is, literally, a question not of education but of the letter. More than that, it is the question of the letter in the two senses the word has in English: as a symbol of the alphabet and a piece of correspondence. It is my hypothesis that ecological literacies may learn a great deal from the literalization, or even the hyper-literalization, of the letter and that they may do so by turning to the corpus of twelfth-century Benedictine abbess, polymath, (...) and mystic St. Hildegard of Bingen. After all, Hildegard, who was exquisitely attuned to the vegetal world, which was at the core of her theological and scientific endeavors, corresponded through letters with the leading personalities of her times and also invented a language, called _lingua ignota_ (the unknown language) replete with _ignotas litteras_ (the unknown letters). Who better than her can spell out the senses of ecological literacy? (shrink)

This article examines the impact of the reading assessment, DIBELS (Dynamic Indicators of Basic Early Literacy Skills), on literacy education through the Habermasian lens. It argues that DIBELS, along with other systemic forces, has surged beyond its domain as a mere assessment and colonized the lifeworld of literacy education by distorting the meaning of the teaching and learning of literacy.This article calls for a critical reflection on the systemized practices in literacy education and for a (...) return to a lifeworld where literacy is considered more than a testable skill. (shrink)

UNDERSTANDING SCIENTIFIC REASONING develops critical reasoning skills and guides students in the improvement of their scientific and technological literacy. The authors teach students how to understand and critically evaluate the scientific information they encounter in both textbooks and the popular media. With its focus on scientific pedagogy, UNDERSTANDING SCIENTIFIC REASONING helps students learn how to examine scientific reports with a reasonable degree of sophistication. The book also explains how to reason through case studies (...) using the same informal logic skills employed by scientists and to analyze a complex series of propositions and hypotheses using sound scientific reasoning. (shrink)

Civic media literacy entails understanding complex topics and events that are increasingly mediated by digital sources of information and where it can be challenging to evaluate the reliability merits of these sources. The goal of this study was to discern the ways undergraduate preservice social studies teachers with different climate change beliefs read and evaluated the reliability of four diverse Web sources about the complex socioscientific topic of climate change. Findings highlight clear alignment between most participants with climate change (...) beliefs at either end of a beliefs continuum with less alignment for participants with climate change beliefs toward the middle of a continuum. Findings also point to the benefits of whole group deliberation to help participants more critically evaluate a Web source that opposed the scientific consensus about climate change. In an age of “alternative facts,” this study points to the importance of students and educators having opportunities to evaluate, discuss, and determine the credibility of a range of online sources. (shrink)

In the current digital environment, people can visit every corner of the world without leaving their homes. New media technology compresses distance and time, but it also subverts the traditional mode of audience presence. Many traditional, offline content expression modes are also moving toward the digital field, and digital art is among them. Digital new media is a new art form that requires its audience to have a new media literacy; this literacy is necessary for esthetic experience and (...) for audience participation. At present, the relatively lack of objective methodology for scientific research on aesthetic and media literacy has limited our current understanding. Therefore, we need to develop a new model and conduct empirical research with college students as the audience. Empirical research was conducted with an audience of college students. The study had the following purposes: to add a new dimension to the esthetic model, namely new media literacy, to align the model with the current digital environment, and to test the moderating effect of new media literacy on esthetic emotion as represented by interest and confusion. The experiment verified the study’s hypothesis that higher new media literacy was associated with higher esthetic interest and lower confusion. By contrast, has a substantial influence on the cognitive processes in humans, lower new media literacy was associated with lower esthetic interest and higher confusion. New media literacy is an essential quality for contemporary audiences. This knowledge may be useful for effective design. It provides a traditional and favorable learning environment and empirical reference for the subsequent improvement of digital aesthetics and media literacy. (shrink)

The concept of “critical science literacy” advanced by Susanna Priest is significant to how citizens approach scientific knowledge, but the concept is also relevant to undergraduate students majoring in the sciences, who are not necessarily becoming “critically literate” in their own disciplines. That is, future scientists are not learning how arguments are structured, meaning is made, and facts are agreed upon—specifically through communicative practices—both within and outside of the scientific community. This gap in the curriculum can be (...) addressed through collaborative efforts between rhetoricians and sociologists of science. Drawing from three major disciplinary traditions—writing studies, the rhetoric of science, and science communication—this article posits that a pedagogical intervention is necessary to improve science communication with nonexpert publics. A science writing and communication course that is grounded in the rhetoric of science and that also has sociological, philosophical, and historical components can provide science students with a critical awareness of how their discipline operates in society and teach them how to become more responsible and effective communicators. (shrink)

This article examines the impact of the reading assessment, DIBELS (Dynamic Indicators of Basic Early Literacy Skills), on literacy education through the Habermasian lens. It argues that DIBELS, along with other systemic forces, has surged beyond its domain as a mere assessment and colonized the lifeworld of literacy education by distorting the meaning of the teaching and learning of literacy.This article calls for a critical reflection on the systemized practices in literacy education and for a (...) return to a lifeworld where literacy is considered more than a testable skill. (shrink)

This paper explores alternative approaches to the conception of scientific literacy, drawing on cultural studies and emerging practices in language arts as its framework. The paper reviews historic tensions in the understanding of scientific literacy and then draws on the multiliteracies movement in language arts to suggest a scientific multiliteracy. This is explored through analyzing the writing practices of groups other than scientists who for a variety of reasons must engage science. Specifically the paper examines (...) zine writers who are ‘professional’ human research subjects, i.e. derive a part of their annual income by signing up for psychological and medical experiments, and science fiction fans, who produce their own texts in response to the narratives they love. The paper argues that these literacy practices add to traditional notions of scientific literacy possibilities of history, fiction, critique, as well as more traditional empiricism embraced by national standards. The paper concludes by considering the ambivalence towards science in both of these popular scientific literacy communities’ writings, arguing that what multiliteracies offers is a possibility of a more nuanced, more appropriately ambivalent, and more politically and ethically engaged subject of science than offered by the current version of literacy dominating science educational discourse. (shrink)