Category: instruction

  • How teachers and administrators can overcome resistance to NGSS

    How teachers and administrators can overcome resistance to NGSS

    Key points:

    Although the Next Generation Science Standards (NGSS) were released more than a decade ago, adoption of them varies widely in California. I have been to districts that have taken the standards and run with them, but others have been slow to get off the ground with NGSS–even 12 years after their release. In some cases, this is due to a lack of funding, a lack of staffing, or even administrators’ lack of understanding of the active, student-driven pedagogies championed by the NGSS.

    Another potential challenge to implementing NGSS with fidelity comes from teachers’ and administrators’ epistemological beliefs–simply put, their beliefs about how people learn. Teachers bring so much of themselves to the classroom, and that means teaching in a way they think is going to help their students learn. So, it’s understandable that teachers who have found success with traditional lecture-based methods may be reluctant to embrace an inquiry-based approach. It also makes sense that administrators who are former teachers will expect classrooms to look the same as when they were teaching, which may mean students sitting in rows, facing the front, writing down notes.

    Based on my experience as both a science educator and an administrator, here are some strategies for encouraging both teachers and administrators to embrace the NGSS.

    For teachers: Shift expectations and embrace ‘organized chaos’

    A helpful first step is to approach the NGSS not as a set of standards, but rather a set of performance expectations. Those expectations include all three dimensions of science learning: disciplinary core ideas (DCIs), science and engineering practices (SEPs), and cross-cutting concepts (CCCs). The DCIs reflect the things that students know, the SEPs reflect what students are doing, and the CCCs reflect how students think. This three-dimensional approach sets the stage for a more active, engaged learning environment where students construct their own understanding of science content knowledge.

    To meet expectations laid out in the NGSS, teachers can start by modifying existing “recipe labs” to a more inquiry-based model that emphasizes student construction of knowledge. Resources like the NGSS-aligned digital curriculum from Kognity can simplify classroom implementation by providing a digital curriculum that empowers teachers with options for personalized instruction. Additionally, the Wonder of Science can help teachers integrate real-life phenomena into their NGSS-aligned labs to help provide students with real-life contexts to help build an understanding of scientific concepts related to. Lastly, Inquiry Hub offers open-source full-year curricula that can also aid teachers with refining their labs, classroom activities, and assessments.  

    For these updated labs to serve their purpose, teachers will need to reframe classroom management expectations to focus on student engagement and discussion. This may mean embracing what I call “organized chaos.” Over time, teachers will build a sense of efficacy through small successes, whether that’s spotting a studentconstructing their own knowledge or documenting an increased depth of knowledge in an entire class. The objective is to build on student understanding across the entire classroom, which teachers can do with much more confidence if they know that their administrators support them.

    For administrators: Rethink evaluations and offer support

    A recent survey found that 59 percent of administrators in California, where I work, understood how to support teachers with implementing the NGSS. Despite this, some administrators may need to recalibrate their expectations of what they’ll see when they observe classrooms. What they might see is organized chaos happening: students out of their seats, students talking, students engaged in all different sorts of activities. This is what NGSS-aligned learning looks like. 

    To provide a clear focus on student-centered learning indicators, they can revise observation rubrics to align with NGSS, or make their lives easier and use this one. As administrators track their teachers’ NGSS implementation, it helps to monitor their confidence levels. There will always be early implementers who take something new and run with it, and these educators can be inspiring models for those who are less eager to change.

    The overall goal for administrators is to make classrooms safe spaces for experimentation and growth. The more administrators understand about the NGSS, the better they can support teachers in implementing it. They may not know all the details of the DCIs, SEPs, and CCCs, but they must accept that the NGSS require students to be more active, with the teacher acting as more of a facilitator and guide, rather than the keeper of all the knowledge.

    Based on my experience in both teaching and administration roles, I can say that constructivist science classrooms may look and sound different–with more student talk, more questioning, and more chaos. By understanding these differences and supporting teachers through this transition, administrators ensure that all California students develop the deeper scientific thinking that NGSS was designed to foster.

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  • The advantages of supplementing curriculum

    The advantages of supplementing curriculum

    Key points:

    Classroom teachers are handed a curriculum they must use when teaching. That specific curriculum is designed to bring uniformity, equity, and accountability into classrooms. It is meant to ensure that every child has access to instruction that is aligned with state standards. The specific curriculum provides a roadmap for instruction, but anyone who has spent time in a classroom knows that no single curriculum can fully meet the needs of every student.

    In other words, even the most carefully designed curriculum cannot anticipate the individual needs of every learner or the nuances of every classroom. This is why supplementing curriculum is a vital action that skilled educators engage in. Supplementing curriculum does not mean that teachers are not teaching the required curriculum. In fact, it means they are doing even more to ensure student success.

    Students arrive with different strengths, challenges, and interests. Supplementing curriculum allows teachers to bridge inevitable gaps within their students.  For example, a math unit may assume fluency with multiplying and dividing fractions, but some students may not recall that skill, while others are ready to compute with mixed numbers. With supplementary resources, a teacher can provide both targeted remediation and enrichment opportunities. Without supplementing the curriculum, one group may fall behind or the other may become disengaged.

    Supplementing curriculum can help make learning relevant. Many curricula are written to be broad and standardized. Students are more likely to connect with lessons when they see themselves reflected in the content, so switching a novel based on the population of students can assist in mastering the standard at hand.   

    Inclusion is another critical reason to supplement. No classroom is made up of one single type of learner. Students with disabilities may need graphic organizers or audio versions of texts. English learners may benefit from bilingual presentations of material or visual aids. A curriculum may hit all the standards of a grade, but cannot anticipate the varying needs of students. When a teacher intentionally supplements the curriculum, every child has a pathway to success.

    Lastly, supplementing empowers teachers. Teaching is not about delivering a script; it is a profession built on expertise and creativity. When teachers supplement the prescribed curriculum, they demonstrate professional judgment and enhance the mandated framework. This leads to a classroom where learning is accessible, engaging, and responsive.

    A provided curriculum is the structure of a car, but supplementary resources are the wheels that let the students move. When done intentionally, supplementing curriculum enables every student to be reached. In the end, the most successful classrooms are not those that follow a book, but those where teachers skillfully use supplementary curriculum to benefit all learners. Supplementing curriculum does not mean that a teacher is not using the curriculum–it simply means they are doing more to benefit their students even more.

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  • 4 tips to support the literacy needs of middle and high school students

    4 tips to support the literacy needs of middle and high school students

    Key points:

    Today’s middle schoolers continue to struggle post-pandemic to read and write at the level needed to successfully navigate more complex academic content in the upper grades and beyond, according to a new report from NWEA, a K-12 assessment and research organization.

    Based on NWEA’s research, current 8th graders would need close to a full academic year of additional instruction to catch up to their pre-pandemic peers in reading. This trend was reiterated in recent assessment results from the National Assessment on Educational Progress (NAEP), with only 30 percent of eighth-grade students performing at or above the NAEP proficient level.

    While early literacy initiatives have garnered attention in recent years, the fact remains that many students struggle to read and are not prepared for the rigors of middle school. Students quickly find themselves challenged to keep up as they no longer receive explicit, structured reading instruction, even as they are expected to comprehend increasingly complex materials across subjects, like science, history, or English Language Arts.

    The report, Policy recommendations for addressing the middle school reading crisis, is co-authored by Miah Daughtery, EdD, NWEA VP of Academic Advocacy at HMH (NWEA’s parent company), and Chad Aldeman, founder of Read Not Guess.

    “Our current middle and high schoolers were just starting their literacy journey when the pandemic hit, and we cannot lessen the urgency to support them. But, middle school literacy is complex even for students who are reading on grade level. This demands intentional, well-funded, and focused policy leadership that includes support across the K-12 spectrum,” said Daughtery. “Simply put, learning to read is not done when a student exits elementary school; support cannot stop there either.”

    Policymakers and district leaders must adopt a systems-level approach that supports both early learners and the unique literacy needs of middle and high school students.

    The new report provides four components that can be leveraged to make this happen:

    1. Use high-quality, grade-appropriate assessments that provide specific data on the literacy needs of middle schoolers.
    2. Look at flexible scheduling and policies that promote literacy development throughout the entire school day and help districts more effectively use instructional time.
    3. Understand and support the unique literacy needs of middle schoolers across subjects and disciplines from a systems perspective and invest in teacher professional learning in all disciplines, including at the upper grades, within state and district literacy plans.
    4. Curate relationships with external partners, like community organizations and nonprofits, who share similar goals in improving literacy outcomes, and can both support and reinforce literacy development, stretching beyond the school’s hours and resources.
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  • National AI training hub for educators to open, funded by OpenAI and Microsoft

    National AI training hub for educators to open, funded by OpenAI and Microsoft

    This story was originally published by Chalkbeat. Sign up for their newsletters at ckbe.at/newsletters.

    More than 400,000 K-12 educators across the country will get free training in AI through a $23 million partnership between a major teachers union and leading tech companies that is designed to close gaps in the use of technology and provide a national model for AI-integrated curriculum.

    The new National Academy for AI Instruction will be based in the downtown Manhattan headquarters of the United Federation of Teachers, the New York City affiliate of the American Federation of Teachers, and provide workshops, online courses, and hands-on training sessions. This hub-based model of teacher training was inspired by work of unions like the United Brotherhood of Carpenters that have created similar training centers with industry partners, according to AFT President Randi Weingarten.

    “Teachers are facing huge challenges, which include navigating AI wisely, ethically and safely,” Weingarten said at a press conference Tuesday announcing the initiative. “The question was whether we would be chasing it or whether we would be trying to harness it.”

    The initiative involves the AFT, UFT, OpenAI, Microsoft, and Anthropic.

    The Trump administration has encouraged AI integration in the classroom. More than 50 companies have signed onto a White House pledge to provide grants, education materials, and technology to invest in AI education.

    In the wake of federal funding cuts to public education and the impact of Trump’s sweeping tax and policy bill on schools, Weingarten sees this partnership with private tech companies as a crucial investment in teacher preparation.

    “We are actually ensuring that kids have, that teachers have, what they need to deal with the economy of today and tomorrow,” Weingarten said.

    The academy will be based in a city where the school system initially banned the use of AI in the classroom, claiming it would interfere with the development of critical thinking skills. A few months later, then-New York City schools Chancellor David Banks did an about-face, pledging to help schools smartly incorporate the technology. He said New York City schools would embrace the potential of AI to drive individualized learning. But concrete plans have been limited.

    The AFT, meanwhile, has tried to position itself as a leader in the field. Last year, the union released its own guidelines for AI use in the classroom and funded pilot programs around the country.

    Vincent Plato, New York City Public Schools K-8 educator and UFT Teacher Center director, said the advent of AI reminds him of when teachers first started using word processors.

    “We are watching educators transform the way people use technology for work in real time, but with AI it’s on another unbelievable level because it’s just so much more powerful,” he said in a press release announcing the new partnership. “It can be a thought partner when they’re working by themselves, whether that’s late-night lesson planning, looking at student data or filing any types of reports — a tool that’s going to be transformative for teachers and students alike.”

    Teachers who frequently use AI tools report saving 5.9 hours a week, according to a national survey conducted by the Walton Family Foundation in cooperation with Gallup. These tools are most likely to be used to support instructional planning, such as creating worksheets or modifying material to meet students’ needs. Half of the teachers surveyed stated that they believe AI will reduce teacher workloads.

    “Teachers are not only gaining back valuable time, they are also reporting that AI is helping to strengthen the quality of their work,” Stephanie Marken, senior partner for U.S. research at Gallup, said in a press release. “However, a clear gap in AI adoption remains. Schools need to provide the tools, training, and support to make effective AI use possible for every teacher.”

    While nearly half of school districts surveyed by the research corporation RAND have reported training teachers in utilizing AI-powered tools by fall 2024, high-poverty districts are still lagging behind their low poverty counterparts. District leaders across the nation report a scarcity of external experts and resources to provide quality AI training to teachers.

    OpenAI, a founding partner of the National Academy for AI Instruction, will contribute $10 million over the next five years. The tech company will provide educators and course developers with technical support to integrate AI into classrooms as well as software applications to build custom, classroom-specific tools.

    Tech companies would benefit from this partnership by “co-creating” and improving their products based on feedback and insights from educators, said Gerry Petrella, Microsoft general manager, U.S. public policy, who hopes the initiative will align the needs of educators with the work of developers.

    In a sense, the teachers are training AI products just as much as they are being trained, according to Kathleen Day, a lecturer at Johns Hopkins Carey Business School. Day emphasized that through this partnership, AI companies would gain access to constant input from educators so they could continually strengthen their models and products.

    “Who’s training who?” Day said. “They’re basically saying, we’ll show you how this technology works, and you tell us how you would use it. When you tell us how you would use it, that is a wealth of information.”

    Many educators and policymakers are also concerned that introducing AI into the classroom could endanger student data and privacy. Racial bias in grading could also be reinforced by AI programs, according to research by The Learning Agency.

    Additionally, Trevor Griffey, a lecturer in labor studies at the University of California Los Angeles, warned the New York Times that tech firms could use these deals to market AI tools to students and expand their customer base.

    This initiative to expand AI access and training for educators was likened to New Deal efforts in the 1930s to expand equal access to electricity by Chris Lehane, OpenAI’s chief global affairs officer. By working with teachers and expanding AI training, Lehane hopes the initiative will “democratize” access to AI.

    “There’s no better place to do that work than in the classroom,” he said at the Tuesday press conference.

    Chalkbeat is a nonprofit news site covering educational change in public schools.

    For more news on AI training, visit eSN’s Digital Learning hub.

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  • 8 under-the-radar digital learning resources

    8 under-the-radar digital learning resources

    Key points:

    Digital learning resources are transforming classrooms, and educators are always on the lookout for tools that go beyond the standard platforms. There are numerous lesser-known digital platforms that offer unique, high-quality learning experiences tailored to students’ and teachers’ needs.

    Here are ten standout resources that can enhance instruction, boost engagement, and support deeper learning.

    1. CurrikiStudio

    Subject areas: All subjects
    Best for: Interactive learning content creation

    CurrikiStudio is a free, open-source platform that allows teachers to design interactive learning experiences without needing coding skills. Educators can create multimedia lessons, games, and assessments tailored to their curriculum. It’s ideal for flipped classrooms, project-based learning, or blended learning environments.

    2. InqITS (Inquiry Intelligent Tutoring System)

    Subject areas: Science
    Best for: Developing scientific inquiry skills

    InqITS offers virtual science labs where students can conduct experiments, analyze results, and receive real-time feedback. The platform uses AI to assess student performance and provide just-in-time support, making it a great tool for teaching scientific practices and critical thinking aligned with NGSS.

    3. Parlay

    Subject areas: ELA, Social Studies, Science
    Best for: Structured online and in-class discussions

    Parlay enables educators to facilitate student discussions in a more inclusive and data-informed way. With written and live discussion formats, students can express their ideas while teachers track participation, collaboration, and the quality of responses. It’s an excellent tool for fostering critical thinking, debate, and reflective dialogue.

    4. Geoguessr EDU

    Subject areas: Geography, History, Global Studies
    Best for: Geospatial learning and global awareness

    Geoguessr EDU is an educational version of the popular game that drops players into a random location via Google Street View. Students use context clues to determine where they are, building skills in geography, culture, and critical observation. The EDU version allows teachers to control content and track student progress.

    5. Mosa Mack Science

    Subject areas: Science
    Best for: Middle school science with an inquiry-based approach

    Mosa Mack offers animated science mysteries that prompt students to explore real-world problems through investigation and collaboration. With built-in differentiation, hands-on labs, and assessments, it’s a rich resource for schools seeking engaging science content that supports NGSS-aligned inquiry and critical thinking.

    6. Listenwise

    Subject areas: ELA, Social Studies, Science
    Best for: Listening comprehension and current events

    Listenwise curates high-quality audio stories from public radio and other reputable sources, paired with interactive transcripts and comprehension questions. It helps students build listening skills while learning about current events, science topics, and historical moments. It’s especially helpful for English learners and auditory learners.

    7. Mind Over Media

    Subject areas: Media Literacy, Social Studies
    Best for: Analyzing propaganda and media messages

    Created by media literacy expert Renee Hobbs, Mind Over Media teaches students to critically analyze modern propaganda in advertising, news, social media, and political content. Through guided analysis and opportunities to submit their own examples, students build essential digital citizenship and media literacy skills.

    8. Brilliant

    Subject areas: Math, Science, Computer Science
    Best for: Problem-solving and conceptual learning

    Brilliant.org offers interactive lessons and puzzles that teach students how to think logically and apply concepts rather than simply memorize formulas. With content tailored for advanced middle schoolers and high school students, it’s ideal for enrichment, gifted learners, or students seeking challenge and depth in STEM topics.

    Each of these digital learning tools brings something unique to the table–whether it’s fostering deeper discussion, building scientific inquiry skills, or promoting digital literacy.

    As schools look to personalize learning and prepare students for a complex, fast-evolving world, these lesser-known platforms provide meaningful ways to deepen engagement and understanding across subjects.

    By incorporating these tools into your classroom, you not only diversify your digital toolkit but also give students access to a wider range of learning modalities and real-world applications. Whether you’re looking for curriculum support, project-based tools, or enrichment resources, there’s a good chance one of these platforms can help meet your goals.

    Laura Ascione
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  • Embracing complexity in writing instruction

    Embracing complexity in writing instruction

    Key points:

    Early in our careers, when we were fresh-faced and idealistic (we still are!) the prepackaged curriculum and the advice of more experienced colleagues was the go-to resource. Largely, we were advised that teaching writing was a simple matter of having students walk through and complete organizers, spending about one day for each “stage” of the writing process. At the end of the writing unit, students had finished their compositions–the standardized, boring, recreated ideas that we taught them to write.

    As we matured and grew as teachers of writing, we learned that teaching writing in such simplistic ways may be easier, but it was not actually teaching students to be writers. We learned with time and experience that writing instruction is a complex task within a complex system.

    Complex systems and wicked problems

    Complexity as it is applied to composition instruction recognizes that there is more than just a linear relationship between the student, the teacher, and the composition. It juggles the experiences of individual composers, characteristics of genre, availability of resources, assignment and individual goals, and constraints of composing environments. As with other complex systems and processes, it is non-linear, self-organizing, and unpredictable (Waltuck, 2012).

    Complex systems are wicked in their complexity; therefore, wicked problems cannot be solved by simple solutions. Wicked problems are emergent and generative; they are nonlinear as they do not follow a straight path or necessarily have a clear cause-and-effect relationship. They are self-organizing, evolving and changing over time through the interactions of various elements. They are unpredictable and therefore difficult to anticipate how they will unfold or what the consequences of any intervention might be. Finally, they are often interconnected, as they are symptoms of other problems. In essence, a wicked problem is a complex issue embedded in a dynamic system (Rittel & Webber, 1973).

    Writing formulas are wicked

    As formulaic writing has become and remains prevalent in instruction and classroom writing activity, graphic organizers and structural guides, which were introduced as a tool to support acts of writing, have become a wicked problem of formula; the resource facilitating process has become the focus of product. High-stakes standardized assessment has led to a focus on compliance, production, and quality control, which has encouraged the use of formulas to simplify and standardize writing instruction, the student writing produced, and the process of evaluation of student work. Standardization may improve test scores in certain situations, but does not necessarily improve learning. Teachers resort to short, formulaic writing to help students get through material more quickly as well as data and assessment compliance. This serves to not only create product-oriented instruction, but a false dichotomy between process and product, ignoring the complex thinking and design that goes into writing.

    As a result of such a narrow view of and limited focus on writing process and purpose, formulas have been shown to constrain thinking and limit creativity by prioritizing product over the composing process. The five-paragraph essay, specifically, is a structure that hinders authentic composing because it doesn’t allow for the “associative leaps” between ideas that come about in less constrained writing. Formulas undermine student agency by limiting writers’ abilities to express their unique voices because of over-reliance on rigid structures (Campbell, 2014; Lannin & Fox, 2010; Rico, 1988).

    An objective process lens: A wicked solution

    The use of writing formulas grew from a well-intentioned desire to improve student writing, but ultimately creates a system that is out of balance, lacking the flexibility to respond to a system that is constantly evolving. To address this, we advocate for shifting away from rigid formulas and towards a design framework that emphasizes the individual needs and strategies of student composers, which allows for a more differentiated approach to teaching acts of writing.

    The proposed framework is an objective process lens that is informed by design principles. It focuses on the needs and strategies that drive the composing process (Sharples, 1999). This approach includes two types of needs and two types of strategies:

    • Formal needs: The assigned task itself
    • Informal needs: How a composer wishes to execute the task
    • “What” strategies: The concrete resources and available tools
    • “How” strategies: The ability to use the tools

    An objective process lens acknowledges that composing is influenced by the unique experiences composers bring to the task. It allows teachers to view the funds of knowledge composers bring to a task and create entry points for support.

    The objective process lens encourages teachers to ask key questions when designing instruction:

    • Do students have a clear idea of how to execute the formal need?
    • Do they have access to the tools necessary to be successful?
    • What instruction and/or supports do they need to make shifts in ideas when strategies are not available?
    • What instruction in strategies is necessary to help students communicate their desired message effectively?

    Now how do we do that?

    Working within a design framework that balances needs and strategies starts with understanding the type of composers you are working with. Composers bring different needs and strategies to each new composing task, and it is important for instructors to be aware of those differences. While individual composers are, of course, individuals with individual proclivities and approaches, we propose that there are (at least) four common types of student composers who bring certain combinations of strategies and needs to the composition process: the experience-limited, the irresolute, the flexible, and the perfectionist composers. By recognizing these common composer types, composition instructors can develop a flexible design for their instruction.

    An experience-limited composer lacks experience in applying both needs and strategies to a composition, so they are entirely reliant on the formal needs of the assigned task and any what-strategies that are assigned by the instructor. These students gravitate towards formulaic writing because of their lack of experience with other types of writing. Relatedly, an irresolute composer may have a better understanding of the formal and informal needs, but they struggle with the application of what and how strategies for the composition. They can become overwhelmed with options of what without a clear how and become stalled during the composing process. Where the irresolute composer becomes stalled, the flexible composer is more comfortable adapting their composition. This type of composer has a solid grasp on both the formal and informal needs and is willing to adapt the informal needs as necessary to meet the formal needs of the task. As with the flexible composer, the perfectionist composer is also needs-driven, with clear expectations for the formal task and their own goals for the informal tasks. Rather than adjusting the informal needs as the composition develops, a perfectionist composer will focus intensely on ensuring that their final product exactly meets their formal and informal needs.

    Teaching writing requires embracing its complexity and moving beyond formulaic approaches prioritizing product over process. Writing is a dynamic and individualized task that takes place within a complex system, where composers bring diverse needs, strategies, and experiences. By adopting a design framework, teachers of writing and composing can support students in navigating this complexity, fostering creativity, agency, and authentic expression. It is an approach that values funds of knowledge students bring to the writing process, recognizing the interplay of formal and informal needs, as well as their “what” and “how” strategies; those they have and those that need growth via instruction and experience. Through thoughtful design, we can grow flexible, reflective, and skilled communicators who are prepared to navigate the wicked challenges of composing in all its various forms.

    These ideas and more can be found in When Teaching Writing Gets Tough: Challenges and Possibilities in Secondary Writing Instruction.

    References

    Campbell, K. H. (2014). Beyond the five-paragraph essay. Educational Leadership, 71(7), 60-65.

    Lannin, A. A., & Fox, R. F. (2010). Chained and confused: Teacher perceptions of formulaic writing. Writing & Pedagogy, 2(1), 39-64.

    Rico, G. L. (1988). Against formulaic writing. The English Journal, 77(6), 57-58.

    Rittel, H. W. J., & Webber, M. M. (1973). Dilemmas in a general theory of planning. Policy Sciences, 4(2), 155–169.

    Sharples, M. (1999). How we write : writing as creative design (1st ed.). Routledge. https://doi.org/10.4324/9780203019900

    Waltuck, B. A. (2012). Characteristics of complex systems. The Journal for Quality & Participation, 34(4), 13–15.

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  • Helping students evaluate AI-generated content

    Helping students evaluate AI-generated content

    Key points:

    Finding accurate information has long been a cornerstone skill of librarianship and classroom research instruction. When cleaning up some materials on a backup drive, I came across an article I wrote for the September/October 1997 issue of Book Report, a journal directed to secondary school librarians. A generation ago, “asking the librarian” was a typical and often necessary part of a student’s research process. The digital tide has swept in new tools, habits, and expectations. Today’s students rarely line up at the reference desk. Instead, they consult their phones, generative AI bots, and smart search engines that promise answers in seconds. However, educators still need to teach students the ability to be critical consumers of information, whether produced by humans or generated by AI tools.

    Teachers haven’t stopped assigning projects on wolves, genetic engineering, drug abuse, or the Harlem Renaissance, but the way students approach those assignments has changed dramatically. They no longer just “surf the web.” Now, they engage with systems that summarize, synthesize, and even generate research responses in real time.

    In 1997, a keyword search might yield a quirky mix of werewolves, punk bands, and obscure town names alongside academic content. Today, a student may receive a paragraph-long summary, complete with citations, created by a generative AI tool trained on billions of documents. To an eighth grader, if the answer looks polished and is labeled “AI-generated,” it must be true. Students must be taught how AI can hallucinate or simply be wrong at times.

    This presents new challenges, and opportunities, for K-12 educators and librarians in helping students evaluate the validity, purpose, and ethics of the information they encounter. The stakes are higher. The tools are smarter. The educator’s role is more important than ever.

    Teaching the new core four

    To help students become critical consumers of information, educators must still emphasize four essential evaluative criteria, but these must now be framed in the context of AI-generated content and advanced search systems.

    1. The purpose of the information (and the algorithm behind it)

    Students must learn to question not just why a source was created, but why it was shown to them. Is the site, snippet, or AI summary trying to inform, sell, persuade, or entertain? Was it prioritized by an algorithm tuned for clicks or accuracy?

    A modern extension of this conversation includes:

    • Was the response written or summarized by a generative AI tool?
    • Was the site boosted due to paid promotion or engagement metrics?
    • Does the tool used (e.g., ChatGPT, Claude, Perplexity, or Google’s Gemini) cite sources, and can those be verified?

    Understanding both the purpose of the content and the function of the tool retrieving it is now a dual responsibility.

    2. The credibility of the author (and the credibility of the model)

    Students still need to ask: Who created this content? Are they an expert? Do they cite reliable sources? They must also ask:

    • Is this original content or AI-generated text?
    • If it’s from an AI, what sources was it trained on?
    • What biases may be embedded in the model itself?

    Today’s research often begins with a chatbot that cannot cite its sources or verify the truth of its outputs. That makes teaching students to trace information to original sources even more essential.

    3. The currency of the information (and its training data)

    Students still need to check when something was written or last updated. However, in the AI era, students must understand the cutoff dates of training datasets and whether search tools are connected to real-time information. For example:

    • ChatGPT’s free version (as of early 2025) may only contain information up to mid-2023.
    • A deep search tool might include academic preprints from 2024, but not peer-reviewed journal articles published yesterday.
    • Most tools do not include digitized historical data that is still in manuscript form. It is available in a digital format, but potentially not yet fully useful data.

    This time gap matters, especially for fast-changing topics like public health, technology, or current events.

    4. The wording and framing of results

    The title of a website or academic article still matters, but now we must attend to the framing of AI summaries and search result snippets. Are search terms being refined, biased, or manipulated by algorithms to match popular phrasing? Is an AI paraphrasing a source in a way that distorts its meaning? Students must be taught to:

    • Compare summaries to full texts
    • Use advanced search features to control for relevance
    • Recognize tone, bias, and framing in both AI-generated and human-authored materials

    Beyond the internet: Print, databases, and librarians still matter

    It is more tempting than ever to rely solely on the internet, or now, on an AI chatbot, for answers. Just as in 1997, the best sources are not always the fastest or easiest to use.

    Finding the capital of India on ChatGPT may feel efficient, but cross-checking it in an almanac or reliable encyclopedia reinforces source triangulation. Similarly, viewing a photo of the first atomic bomb on a curated database like the National Archives provides more reliable context than pulling it from a random search result. With deepfake photographs proliferating the internet, using a reputable image data base is essential, and students must be taught how and where to find such resources.

    Additionally, teachers can encourage students to seek balance by using:

    • Print sources
    • Subscription-based academic databases
    • Digital repositories curated by librarians
    • Expert-verified AI research assistants like Elicit or Consensus

    One effective strategy is the continued use of research pathfinders that list sources across multiple formats: books, journals, curated websites, and trusted AI tools. Encouraging assignments that require diverse sources and source types helps to build research resilience.

    Internet-only assignments: Still a trap

    Then as now, it’s unwise to require students to use only specific sources, or only generative AI, for research. A well-rounded approach promotes information gathering from all potentially useful and reliable sources, as well as information fluency.

    Students must be taught to move beyond the first AI response or web result, so they build the essential skills in:

    • Deep reading
    • Source evaluation
    • Contextual comparison
    • Critical synthesis

    Teachers should avoid giving assignments that limit students to a single source type, especially AI. Instead, they should prompt students to explain why they selected a particular source, how they verified its claims, and what alternative viewpoints they encountered.

    Ethical AI use and academic integrity

    Generative AI tools introduce powerful possibilities including significant reductions, as well as a new frontier of plagiarism and uncritical thinking. If a student submits a summary produced by ChatGPT without review or citation, have they truly learned anything? Do they even understand the content?

    To combat this, schools must:

    • Update academic integrity policies to address the use of generative AI including clear direction to students as to when and when not to use such tools.
    • Teach citation standards for AI-generated content
    • Encourage original analysis and synthesis, not just copying and pasting answers

    A responsible prompt might be: “Use a generative AI tool to locate sources, but summarize their arguments in your own words, and cite them directly.”

    In closing: The librarian’s role is more critical than ever

    Today’s information landscape is more complex and powerful than ever, but more prone to automation errors, biases, and superficiality. Students need more than access; they need guidance. That is where the school librarian, media specialist, and digitally literate teacher must collaborate to ensure students are fully prepared for our data-rich world.

    While the tools have evolved, from card catalogs to Google searches to AI copilots, the fundamental need remains to teach students to ask good questions, evaluate what they find, and think deeply about what they believe. Some things haven’t changed–just like in 1997, the best advice to conclude a lesson on research remains, “And if you need help, ask a librarian.”

    Steven M. Baule, Ed.D., Ph.D.
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  • How 4 districts use AI tools to transform education

    How 4 districts use AI tools to transform education

    Key points:

    • School districts turn to AI to improve personalized education for students
    • With AI coaching, a math platform helps students tackle tough concepts
    • 5 practical ways to integrate AI into high school science
    • For more news on AI in education, visit eSN’s Digital Learning hub

    Simply put, AI can do a lot–it can personalize learning, help students expand on ideas for assignments, and reduce time spent on administrative tasks, freeing up educators to spend more time on instruction.