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  • How to be Strategic with Scaffolding Related to DOK

    How to be Strategic with Scaffolding Related to DOK


    Strategic with Scaffolding Relate to DOK

    Questions to Consider When Choosing Scaffolding Strategies

    Karin Hess, author of the article ‘How to be Strategic with Scaffolding Strategies’, wants educators to consider this question when choosing a scaffolding strategy:

    • Why did I choose this strategy?
    • Does it match my learning target? and
    • How will it optimize learning for some or all of my students?

    Previous Post

    3 Myths about Scaffolding

    Hess shares some ideas about making good choices, but first Hess wants to clear up 3 common myths about scaffolding:

    Myth #1: Scaffolding is the Same as Differentiation

    Many teachers – and even some educational resources – often mix scaffolding with differentiation, but they are distinct. To help remember the difference, you can think of scaffolding as providing the necessary support to complete a task, while differentiation offers students various options regarding the tasks they can undertake.

    When instruction is differentiated, students select from various assignments that are often similar in difficulty. I first intentionally used differentiation during my time teaching middle school. I developed assignment menus that catered to different content (varying texts, materials, scenarios, or subjects), the processes involved (levels of engagement with the material, whether working solo or in pairs, etc.), and the products that students created to demonstrate their understanding. Tools like choice boards, menus, and activity stations are frequently employed throughout a unit to present optional tasks for students.

    On the other hand, scaffolding strategies are designed to help each student effectively engage with grade-level content, complete assignments ranging from basic to advanced, and build their confidence and independence as learners.

    Myth #2: Scaffolding is always temporary

    In fact, many scaffolding techniques—like dividing a task into manageable pieces or collaboratively creating an anchor chart to enhance understanding—can be applied later, even as tasks become more complex. Scaffolds aren’t just for students who need extra help. Even top-performing adults break intricate tasks into smaller segments and rely on models and peer feedback to better grasp new concepts. Think of it this way: a painter
    always utilizes some form of scaffolding when working on a ceiling.

    Myth 3: Scaffolding is used to change the intended Rigor

    A scaffolding approach can lighten the cognitive load on a learner’s working memory during educational activities, without altering the challenge level of the task.

    For example, when a complex text is read aloud or illustrated as a graphic novel, students are relieved from the need to fully use their working memory to decipher unfamiliar words for understanding the text’s meaning. Instead, they might take sketch notes while listening, capturing essential ideas to facilitate later summarization, discussion, or explanation of more intricate concepts.

    While decoding skills are vital, the primary focus of this learning activity isn’t solely on decoding words. Similarly, when a student uses a calculator to perform calculations with large numbers or decimals, they can verify their estimates without the cognitive burden of manually calculating the same operations.

    Understanding the learning objectives helps educators identify the most suitable scaffolds for the lesson and specific students—essentially, placing the scaffolding activity in their Zone of Proximal Development (ZPD). Scaffolding is aimed at ensuring that even if a student encounters difficulties, those challenges are constructive.

    Consider scaffolding as a bridge that can either (a) enhance content accessibility (such as “chunking” texts, conducting focused discussions, or building background knowledge) or (b) simplify multi-step tasks (like
    collaborative data collection or breaking tasks into smaller, manageable parts with checkpoints).

    Determining the Right Time for Scaffolding

    Educators can benefit from considering three main areas of support that help students build the skills necessary for tackling more complex tasks or grasping difficult concepts:

    1. enhancing content understanding,
    2. improving executive function, and
    3. fostering language and vocabulary skills.

    Effective scaffolding at one Depth of Knowledge (DOK) level typically helps students progress to the subsequent DOK level. Below, Hess outlines various strategies for each DOK Level tailored to different teaching goals. (For a
    comprehensive collection of strategies, be sure to download Karin’s PDF.)

    Scaffolding Purpose 1: Enhancing Understanding and Linking to Key Concepts

    Various techniques aimed at enriching learning can easily emerge from activities focused on improving language abilities or fostering executive function. For example, collaborating with students to create an anchor chart outlining the steps for tackling a non-routine math problem not only bolsters executive functioning, but also serves as a useful reference. This chart can remind students of each step as they approach new challenges.

    Scaffolding Techniques to Enhance Learning Across Various DOK Levels

    DOK 1 – The “DAILY 10” Playlist

    The role of prior knowledge in improving reading comprehension and developing schema is crucial. To implement this technique, create a playlist featuring at least six short printed and non-printed materials on a subject (like images, political cartoons, articles, or relevant websites tied to social studies or a science unit) for
    students at the week’s start.

    Each day, for a maximum of ten minutes, students—either individually or in small groups—select one resource to read or listen to and jot down some notes. These notes are not graded. Encourage class discussions and journal entries to link this expanding background knowledge to the current unit of study.

    DOK 3 – Carousel Feedback

    This approach reframes carousel brainstorming, where small groups rotate through different stations, brainstorming ideas on various subtopics. They record their thoughts on large chart papers for the next group to read and contribute to.

    The teacher sets up 4 or 5 large posters, each featuring a unique question prompt or problem-solving task. Students are grouped in a diverse arrangement, each group using a different colored marker for their answers. They start by reading the problem at their table and working on the chart paper to find a solution.

    After a few minutes (before they complete their task), the teacher signals for time, and the groups rotate to tackle a new problem. Upon arrival, they review the previous group’s work and discuss it among themselves. They then determine whether the last group’s solution was correct and use a new color marker to either continue solving the problem if it was right or to make adjustments if they spot an error. If corrections are needed, they add a note explaining the mistake and the rationale for the correction.

    When time is called again, the groups rotate for a third time, repeating the checking and justification process as before. In the final round of rotations, the groups create a justification for their solution, relying on calculations and notes provided by other teams. This carousel approach fosters meaningful discussions and encourages collaborative reasoning backed by evidence.

    Purpose of Scaffolding 2: Enhancing Executive Function and Skill Application

    Students who struggle with executive function often find it challenging to stay focused and engaged in dealing with long texts and complex tasks. This skill set also plays a crucial role in goal setting, monitoring progress, and fostering a positive self-image as learners. Executive functions encompass various skills
    that help students start, track, and complete intricate multi-step projects.

    Scaffolding strategies can help in several areas:

    Initiation – The ability to kick off a task or activity while generating ideas,
    responses, or finding solutions (e.g., collaborative brainstorming sessions).

    Working Memory – The ability to retain information for engaging with longer
    texts (e.g., breaking texts into manageable chunks).

    Planning and Organization – The skill to handle both current and future tasks
    demands (e.g., maintaining learning logs).

    Self-Monitoring – The capacity to assess one’s own performance and compare it
    to established standards or expectations (e.g., through conference discussions).

    Supportive Strategies for Executive Function at Varying DOK Levels

    DOK 2: A Card Pyramid for Information Summarization

    The card pyramid technique uses numbered sticky notes or index cards to dismantle information from a text. Ideally, partners collaborate to construct the pyramid, taking turns to verbally summarize their findings, before penning down a written summary.

    DOK 3: Crafting a Mathematical Argument

    Teaching how to create a mathematical argument can be as challenging as learning it. In this approach, partners split their paper vertically. On the left side, students methodically work through the steps to solve the problem, while on the right, they articulate the reasoning behind each step or explain how it works.
    contributed to their solution (e.g., my diagram illustrates the division of the candy bar; I’ve labeled each fractional part to clarify…). This scaffolding method is beneficial, as it deconstructs the path to the solution, allowing for a more thoughtful explanation of the reasoning behind each action.

    KHess Chart for Mathematical Argument

    Scaffolding Purpose 3: Nurturing Language and Vocabulary Growth

    Developing vocabulary and language skills is crucial for understanding across all subjects. One effective strategy for enhancing vocabulary is to emphasize and reinforce the key language necessary for learning in each content area. Teachers can informally boost language development by using visuals and tangible models to activate prior knowledge, color-coding to highlight significance or differences (like anchor charts, sentence stems, or paragraph frames for multi-digit number place value), facilitating meaningful discussions, and
    demonstrating their thought processes aloud.

    Using multi-sensory techniques can help students develop their language skills. However, it’s important to avoid overwhelming them with too many methods simultaneously, or relying on strategies that don’t easily carry over to future learning. A charming visual of a pumpkin or cookie may not effectively help students understand paragraph or essay writing compared to a structured anchor chart or a color-coded paragraph frame with clear visual cues.

    Hess enjoys introducing TBEAR through texts familiar to students, such as fairy tales or pieces they’ve read in class before. Teachers at all grade levels have used or modified TBEAR, and have found it particularly effective for students struggling with language proficiency. In both whole-class settings and partner work, students can use TBEAR to help them find text evidence and prepare for discussions or writing assignments. For example, middle school teachers I’ve collaborated with had students develop and display anchor charts
    for important math vocabulary after analyzing these words through TBEAR.

    TBEAR smoothly supports students in progressing from DOK level 1 to levels 2, 3, or 4, and it’s easy to recall what each letter represents:

    T: Create a Topic sentence/Thesis statement/or claim (DOK 1); or define a vocabulary Term or concept.

    B: Succinctly summarize the text to act as a bridge to your evidence (DOK 2); or rephrase the meaning in your own words.

    E: Find text Evidence/Examples (DOK 2); or offer both examples and non-examples when defining specific terms.

    A: Analyze each example or piece of text evidence; include additional details to explain why the evidence backs up your thesis/claim (DOK 3).

    R: Share a key takeaway (DOK 1 or 2) or a reflection that might extend from DOK 3 to DOK 4, such as links to the world, personal experiences, or ties to additional resources.

    Support for Everyone

    True equity starts with the understanding that all students can and should progress beyond memorizing routines and gaining superficial knowledge in a subject. This is particularly important for students with learning disabilities and those who speak multiple languages.

    Research indicates every student benefits from daily chances to express their creativity, interpret information and ideas, pose questions, engage in research, and develop their own insights through meaningful discussions.

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  • How Kids Learn to Read

    How Kids Learn to Read


    How do kids learn to read? Kids learn by explicit, systematic, and cumulative instruction. Structured literacy and the five pillars of literacy help provide students with the best instruction for learning how to read and comprehend.

    Previously we taught kids to read by memorizing numerous sight words and using guessing to read leveled readers. I remember my beanie baby collection of “reading strategies” such as Eagle Eye, Stretchy the snake, and Lips the Fish. While we tried to provide some phonics instruction and word walls for memorization, research has proven these strategies have not effective in helping kids learn to read. Science of Reading research shows how students truly learn to read through a structured literacy approach.


    New Research

    Research over the past five decades have discovered the scientific proof on how students learn to read. Instruction needs to be explicit, systematic, and cumulative. National Reading Panel also identified five pillars of early reading which include, phonemic awareness, phonics, fluency, vocabulary, and comprehension. Simple View of Reading and the Reading Rope came about to better help teachers understand the interconnected strands that effect reading.

    learn to read – How Kids Learn to Read

    Simple View of Reading

    According to the Simple View of Reading graphic, reading has two basic components: word recognition (decoding) and language comprehension. If students are lacking in either of these areas they will not be successful readers. The Simple View of Reading formula was developed by Gough & Tunmer in 1986. This image and formula helps to clarify that phonics is not the only component of reading. Both components are important to become a fluent reader. Therefore, teachers need to provide explicit instruction to support both components.

    learn to read – How Kids Learn to Read

    The Simple View of Reading helps teachers and interventionist identify patterns in reading difficulties in both word recognition and language comprehension. Knowing our learners and their reading patterns helps us identify reading difficulties and where to focus our instruction. The continuum below from The Reading League (2021) depicts three patterns in which there is a weak area that will result in diminished reading comprehension. To identify student strengths and needs, universal screening and diagnostic assessment data must used to inform instruction and intervention.

    learn to read – How Kids Learn to Read

    Scarborough’s Reading Rope

    We can turn to Hollis Scarborough’s Reading Rope as another way to explain Science of Reading and the components of a skilled reader. This rope is a great visual aid to show that each component of reading needs to be explicitly taught and practiced and eventually be woven together to be a fluent reader. Scarborough describes ‘skilled reading” as happening when students are able to read fluently while comprehending it. All components of the rope need to come together to produce a skilled reader. The Reading Rope has two main strands: word recognition and language comprehension. Language comprehension consider of background information, vocabulary, language structures, verbal reasoning, and literacy knowledge. Word Recognition includes phonological awareness, decoding, and sight recognition.

    learn to read – How Kids Learn to Read

    How does this change our current teaching practices?

    These models and SOR research might affect how you teach the components. In younger grades, it is important to teach many of these components of the two strands in isolation. For example, in primary grades teachers might spend some time teaching phonological awareness, some time teaching decoding (phonics) skills, and some time teaching background knowledge & vocabulary. In later elementary these strands are more woven together as students become more fluent readers. Some ELA programs have separate sections to teach the two different strands while others break the sections into different elements.

    We should be explicating teaching all these components to students and not focusing on one or the other. Science of Reading is not just phonics instruction as many people believe. As the Simple View of Reading equation shows us, if our students are lacking decoding (phonics) skills, they cannot have reading comprehension. If students are amazing at decoding and phonics skills but struggle with language comprehension, background knowledge, vocabulary, etc, they will not be skilled readers either.

    More information Visit Reading Rockets

    Images courtesy of The Reading League – Science of Reading: Defining Guide ebook



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  • How districts can increase student access to computer science | Quick Guide

    How districts can increase student access to computer science | Quick Guide


    Credit: Alison Yin / EdSource

    Top Takeaways
    • Collaboration between districts and community organizations, including to mentor teachers, is the key to expanding the pool of educators to teach computer science.
    • Educational leaders must prioritize including computer science classes in course offerings.
    • Parents can play an important role in getting their children to take computer science classes and in pressuring administrators to offer the classes at their schools.

    In spite of statewide initiatives to increase access to and participation in computer science classes, California lags behind the national average of 60% and trails about three dozen other states in the percentage of high schools offering at least one computer science course. 

    According to the national 2024 State of Computer Science report:

    • 52% of high schools across California offered computer science in the 2023-24 school year.
    • Students who are female, belong to a racial or ethnic minority group, live in rural areas and small towns or attend schools serving predominantly low-income students are less likely to attend schools offering computer science classes.
    • Policies in other states have expanded student access to computing skills and closed racial, gender, geographic and socioeconomic gaps.
    What is computer science?

    Computer science, as described in the computer science academic content standards adopted by the State Board of Education, is “the study of computers and algorithmic processes, including their principles … implementation and impact on society.” The course teaches and prepares students to “meaningfully engage” in a digitally driven world, according to Computer Science for California (CSforCA), a group of educators, nonprofit organizations and industry leaders that has worked to improve equity in computer science access.

    Advocates say that in addition to legislative action, districts and communities can and should take the following steps to increase access to and enrollment in computer science. 

    Start with teachers

    Julie Flapan, co-director for Computer Science for California (CSforCA), said proper teacher preparation is the first step in computer science education. 

    “Part of that means sending a teacher to professional learning. Not only do they learn the curriculum and pedagogy, but they’re part of an ongoing community of practice to feel supported in teaching computer science,” Flapan said.

    Local, regional or statewide collaborative spaces where educators can learn from and support one another are crucial for teachers who are the only computer science instructors in their schools. 

    Teacher collaboration is key in small, rural districts or schools, where there may only be one educator trying to integrate computer science, said Tracey Allen, who has worked with rural districts across Northern California for Seasons of CS, California’s year-round computer science professional learning and training program.

    “They might be the only science teacher that’s trying to integrate computer science, or they’re the only math teacher on site,” Allen said. “It’s kind of hard to have a robust conversation with yourself if you’re the only one in that content area.” 

    How do schools or districts find interested teachers? 

    Karen Mix, co-director for the federal CS4NorCal grant under the Small School Districts’ Association, said recruiting teachers requires developing relationships. 

    “I pop into schools and meet teachers,” she said. “Answer questions that they may have, show them the benefits and the values of computer science and how they can use it and encourage them to go to the training. One of our teachers — I had to pop into their school and talk to him and their principal maybe four or five times before we got them on board.” 

    Do teachers need to have a background in computer science? 

    In 2016, the state passed legislation allowing educators in other disciplines to pursue computer science certification with required coursework. 

    Though a leader in computer science advocacy, Allen in Northern California was a multiple-subject credentialed teacher with no background in the subject. 

    “You don’t need a background in computer science to begin learning about computer science and find easy entry points to start implementing or integrating it into your classroom for the benefit of your students,” she said. 

    Beyond professional development, how can schools and districts support teachers? 

    State and federal grant funding for computer science initiatives created ongoing professional learning. For that to continue after grant funding expires, Allen said, districts and schools can connect with county offices or other districts that are already doing the work.

    “We are strapped for time,” she said. “Don’t feel like you have to create the wheel or that you have to be the one to put a resource bank together for your teachers. Reach out to other colleagues and tap into professional learning that’s already happening.

    “I think sharing resources, sharing professional learning opportunities, will be key.”

    CS4NorCal has even created and regularly updates an implementation dashboard — an interactive online tool — that will allow educators and school leaders to explore ways to implement computer science through the different approaches being used elsewhere. 

    And advocates emphasize the importance of connecting with local community partners. 

    Collaboration with community groups is vital, too

    In the 2018-19 school year, Modoc County high schoolers had no access to any computer science courses, but nonprofits and community organizations participated in training opportunities to better collaborate in the development of computer science. The nonprofit Advancing Modoc, which eventually began leading course implementation, recruited staff to support the initiative. 

    Partnerships can broaden access and participation not just in computer science concepts but in basic digital and technological skills.

    “Partnerships where you actually bring in subject matter experts like ourselves into classrooms can augment and help,” said Damon Thomas, co-founder of Quiq Labs, a tech education company that teaches students science, technology, engineering, art and mathematics (STEAM) through enrichment programs. 

    ‘Be creative with your master schedule’ 

    “You have to really have that administrator in your building or in your district being a support for you,” Mix, the co-director for the CS4NorCal grant, said. 

    It’s school and district leaders who determine what classes are offered on a school’s master schedule.

    So, no matter how much professional development teachers receive, it goes nowhere if computer science isn’t prioritized in schools, said Rudy Escobar who has provided professional development and offered family engagement in his roles in Stanislaus County, the Central Valley and statewide. 

    School and district leaders must balance the availability of courses required to graduate with non-mandatory but needed classes that can, undoubtedly, prepare students for life after high school. But many administrators are reluctant or unable to prioritize a subject that isn’t explicitly a part of the state’s dashboard, the requirements that are used to measure and hold districts accountable for student progress toward college and career readiness. 

    “We have to really change the mindsets of site and district administrators, and even superintendents, to be able to see this as a priority,” Escobar said.

    To increase access, Turlock Unified in Stanislaus County will start by offering an Advanced Placement (AP) computer science course in its high schools, Escobar said. 

    The College Board, which administers the AP program, offers resources to California educators teaching or planning to teach AP. According to Holly Stepp, a spokesperson with College Board, those include: 

    • Free professional learning for educators planning to teach AP Computer Science in the 2025-26 school year
      • A grant is available for the four-day online or in-person training in June, July or August that will provide teaching strategies, instructional materials and a supportive teacher community
    • Online workshops led by veteran AP instructors
    • Mentoring 
    • A teacher collaborative 
    • Innovative curriculum with pre-approved syllabi, lesson plans and other instructional materials
      • Professional learning is also available to prepare teachers to use the curriculum
    • Free, online resources that can be tailored to meet the needs of students 

    Computer science advocates urge leaders to be creative with their master schedules and balance what courses they offer.

    For example, in rural Siskiyou county in far Northern California, a kindergarten teacher on a half-day schedule teaches computer science as an afternoon elective in other elementary grades, Mix said. 

    Likewise, the small, rural Modoc County created a middle school coding class in the 40 minutes between 2:40 p.m. (when classes end) and 3:30 p.m. (when buses arrive).

    “Just be creative with your master schedule,” Mix said.

    How can administrators justify adding a class? 

    Kathy Hamilton with the Small School Districts’ Association acknowledged that small, rural schools and districts lack resources and credentialed teachers to offer computer science courses, and students may have no interest or awareness of the value of such classes. 

    “It’s a long-term strategy, but you have to build up the interest, build up the pressure, in grades K-8 so that by the time the kids get to high school, there’s a demand for the course, and then the principal can justify providing the assignment in the master schedule to offer a course,” Hamilton said. 

    Escobar recommends that administrators open up opportunities for teachers to integrate, or merge computer science into another subject area, to expose students to computer science in middle and elementary grades. 

    “Start early,” he said. “Make it a consistent thing that the students are seeing every year, so that way, when they get to high school, students are seeking to take those courses.”

    What resources are available to school and district administrators? 

    Administrators remain concerned about how to implement computer science courses, especially if it becomes a requirement.  

    According to Flapan, the co-director for CSforCA, several organizations, many of which have received grant funding, have provided resources, including learning guides on how to implement computer science.

    “There’s a lot of statewide resources and a lot of momentum and expertise in computer science in the state of California,” she said. “All of these folks are interested in helping to guide and support other administrators that are looking for ways to implement computer science in their schools.”

    Resources for administrators and others

    Some of those include: 

    How parents can help 

    “Parents want computer science when they hear what we talk to them about,” Escobar said, and they can advocate for computer science to be a priority in their school district. 

    “Statewide, we’re seeing that even though there are more computer science classes being offered, that the classes themselves aren’t always representative of the student body in the schools they serve,” Flapan said. 

    “How do we make sure that students of color and girls are taking advantage of those opportunities? We think that parents can play a strong role in encouraging their students to take it if they have a better understanding of why it’s important and how it could help them in their post-high school plans — whether it’s college or careers or  just engaging in their communities.” 





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