The second step in the KnowAtom lesson routine for grades K-8 is Socratic dialogue. This is an important part of the Next Generation Science Standards (NGSS)-based curriculum for students of all ages. If you're new at implementing scientific discussions or looking to improve the Socratic dialogue in your classroom, it's important to set clear expectations for yourself and your students. Knowing what you should expect as a teacher-facilitator and what you should expect from your students as they become more familiar with Socratic dialogue in your science class, will help improve your results.Continue reading
Educational leaders often speak about preparing the “next generation” for the future. In the years ahead, the next generation will work in jobs that are just emerging or don’t yet exist and will face challenges we can only theorize on today. While leaders often pay lip service to “investing” in the next generation, only one content area explicitly states that the next generation is their focus. That area? Science.Continue reading
What Does NGSS Stand For? NGSS refers to the Next Generation Science Standards (NGSS) which are used in some form by 44 US states and territories to shape instruction and excite the next generation of scientists and engineers. Developed by prominent scientists and teachers, the NGSS aims to inspire curiosity and engagement for students who might otherwise lose ambition for STEM (science, technology, engineering and math) as they enter middle school.Continue reading
The Next Generation Science Standards (NGSS) is a multi-state initiative to create new education standards for students from K-12. It establishes a progression of performance expectations spanning the elementary through high school years that promote growth in students' abilities to participate in science and engineering.
Rich in content and practice, an NGSS curriculum should delivers a coherent learning experience across disciplines for a grade specific and internationally benchmarked education in STEM subjects. There are three foundations of the NGSS standards which are the NGSS Disciplinary Core Ideas, Crosscutting Concepts, and Science and Engineering Practices, which together guide the development of K-12 science curriculum, instruction, and assessments that form the most critical areas of science education.
What are the NGSS Disciplinary Core Ideas?
NGSS Disciplinary Core Ideas ( DCI ) are fundamental scientific ideas that form the content of an NGSS curriculum. They cover four domains: physical science, life science, earth and space science, as well as engineering, technology, and applications of science.
As teachers read the NGSS, they see a clear progression of Next Generation Science Standards by grade level. From kindergarten to middle school, the standards increase in complexity as students grow and learn. When rooted in next generation pedagogy, the standards expand with the capacity of the student.Continue reading
When it comes to Next Gen Curriculum and Standards, it's important to unpack curriculum mapping. NGSS Standards are performance expectations (PEs), and there are infinite routes to student mastery but for students to get there requires the skill and knowledge of teachers to create deeper learning opportunities.Continue reading
Whether you are currently using KnowAtom or not, all teachers know the importance of a great discussion. I'd like to share with you some of the teaching strategies I've learned over the past 20 years to help prepare your students for meaningful scientific discussion. If you're not a science teacher, many of the cooperative learning and growth mindset strategies I am going to discuss will work with your students as well.
What is a growth mindset? The education concept was developed by psychologist Carol Dweck and shared in her book Mindset: The New Psychology of Success. She writes, "In a fixed mindset, people believe their basic qualities, like their intelligence or talent, are simply fixed traits…. They also believe that talent alone creates success—without effort." In contrast, "In a growth mindset, people believe that their most basic abilities can be developed through dedication and hard work—brains and talent are just the starting point. This view creates a love of learning…." says Dweck.
Teachers who use the KnowAtom curriculum understand first-hand how implementing cooperative learning strategies, including Socratic dialogue, in the classroom improves student engagement and strengthens learning outcomes. I've also seen how as I give the reins more to my students, letting them take the lead in classroom discussions and small group projects, they can accomplish amazing things together. Seeing this first-hand has definitely strengthened my belief in a growth mindset!
Preparing for student-led discussions
Giving students the tools they need to prepare for a great discussion is something that we really need to remember to do because students don't always know how to do it on their own. With this support, we can create students who are confident in their ability to discuss their ideas. With Dweck's growth mindset in mind, we can prepare students to engage in cooperative learning strategies that strengthen their critical thinking skills and set them up to become lifelong learners.
When using the KnowAtom curriculum, there are simple steps to every lesson that we do together as a class. We always start with nonfiction reading. Then we move into a Socratic dialogue where the students discuss their thoughts and get ready for what they will be planning next. The goal of a great classroom discussion is to create a bridge between what the students have read and the lab they will soon be preparing for. They are better prepared when we get to the cooperative learning groups' hands-on science investigation because of this step-by-step process.
The most important part of a good Socratic discussion is that the teacher is not the only one asking the questions. The students ask each other questions. They challenge each other to defend their thinking, and in the process, learn to use evidence to support their arguments. It's important to remember that cooperative learning doesn't happen overnight. When I started teaching with KnowAtom, my students were really excited about what they read. When it came time for the formal discussion, I assumed they would be very eager to discuss the information. I was wrong – we just sat there. The students either looked at me with panic or looked at their lab books. I was the only one asking questions. So, I had to go back and think about, how am I going to help my students feel prepared and comfortable to discuss these lessons?
Developing cooperative learning routines
The first thing we do together is develop routines. First, students gather the resources they need. Next, we review pre-lesson questions to get the students thinking about what they are going to read about. For the reading portion, we develop different cooperative learning strategies, including reading individually, as a class, or with a partner. We also use read-aloud videos and reading strategies to help all students access the nonfiction text. Finally, we use picture thinking graphic organizers to help students focus on the pictures from the text.
What is cooperative learning? Cooperative learning is an instructional model designed to improve student learning outcomes by promoting teamwork. Do you allow students to work together on small group learning projects? If so, you're already modeling cooperative learning strategies in your classroom. When our students work together on interactive classroom activities, they strengthen communication, social, and critical thinking skills. When collaborating in small groups of two to four peers, students have the opportunity to take responsibility for their own learning. Collaborative learning strategies require teachers to give up some responsibility for classroom instruction to their students, letting them take the lead.Continue reading
Topics: science and engineering practices, Next Generation Science Standards, higher order thinking, STEAM, interactive science, Professional Development, STEAM Curriculum, Next Generation Science, NGSS-Designed Curriculum
Creating a next generation learning experience with the appropriate challenges is what leads to student learning. NGSS Evidence statements are key to facilitating an interactive student-led learning environment when used properly.Continue reading
The Next Generation Science Standards (NGSS) were released in 2013. They are research-based K–12 science content standards that aim to improve science education for all students. These Next Generation learning standards are a critical component in many STEM curriculums.Continue reading
To help students achieve accelerated learning in the classroom, teachers need to improve how we set and communicate our expectations. In student-centered learning, students choose what they will learn, and they set the pace. Teachers become classroom facilitators when their students take the lead in an accelerated learning program. Implementing formative assessments in a student centered classroom will improve outcomes because students better understand the expectations because they are getting continuous feedback in the moment.
What's the difference between formative and summative assessments? Formative assessments occur in the moment as students are engaged in making sense of phenomena. This real-time approach allows students to incorporate the feedback into their thinking and their work, becoming more aware of their own learning process and refining their skills in the moment. In a formative assessment, the teacher's role is an interested skeptic, engaged in the student's argument but pressing for evidence and reasoning. A formative assessment requires a shift in responsibility. Instead of a student trying to guess what the teacher wants, the student is productively struggling to develop skills and content knowledge, with support/coaching from the teacher. Summative assessments are more high stakes and occur less frequently, typically at the end of a lesson or unit.
One of the most important things we can teach our students, no matter what grade level or topic you teach, is how to ask good questions. When I think about this important topic, I can't help but consider how my teaching style has changed over the past 20 years. Today, when I think about how to support student centered learning in my classroom, I want to make sure that I am modeling good questions. That's because modeling is an important way to teach students how to ask good questions themselves. I am going to share with you what a good question looks like and how to teach your students ways to identify and use them effectively.
A student-centered classroom starts with the teacher. We've learned that we can improve student engagement and achieve better outcomes by giving up some of the control we have as teachers. Students who are given an active role in the classroom have more opportunities to think critically about the concepts and how they relate to the world around them. Rather than asking students to read and memorize, we need to be asking them to collaborate with their peers, discover new ideas, and make strong connections. With student centered learning, giving students a voice in the classroom helps improve student engagement, but students need to develop the skills to take the lead. Learning how to ask authentic questions of their peers, their teachers, and their sources – is a great way to start.
Student centered instruction and asking good questions
Good questions are good questions regardless of who you're interacting with or what subject you're teaching. If you're not a KnowAtom teacher, if you're a teacher who teaches another subject, a parent, or a principal, all of these things will apply to your students as well! Let's look first at where we can expect students to ask good questions when implementing a student-centered approach during a lesson.
KnowAtom's science curriculum starts off with a nonfiction reading component every time. That's where a lot of the questioning will happen in a student centered teaching model. From there, we move on to Socratic dialogue, where students discuss the questions, wonders, or connections they made from the reading. Questioning plays a big part in this section of the lesson and if we can improve our students' questioning skills, we can improve our classroom dialogue.
Students then move into planning, and we ask them to think like scientists or engineers. That entails a lot of questions about what's going to happen in the hands-on investigation portion of the unit. Then, the students carry out their investigation, experiment, or engineering activity. Lots and lots of questions are happening as part of this section as well. Finally, students share their conclusions in a debrief. One of the things that I enjoy most with student centered learning is listening to students question each other about their data and their outcomes.
The purpose of questioning in student centered learning
What's the purpose of questions? The main purpose of encouraging students to ask good questions is to engage them in taking a position on a concept or big idea from the reading. When you think about it, that's a really risky proposition. Perhaps that's why when I first started teaching, I asked questions like "What is a hurricane?" rather than "How are hurricanes related to the water cycle?"
One thing I've learned over the past 20 years of teaching is that learning styles are really more about teaching styles. There are many different types of learning styles and it's important to make sure that we are teaching all learners and giving students the tools they need to succeed in the classroom. One example of how to accomplish this challenge in your own classroom is by improving access to the assigned reading for all students. To help, I am going to share the tools and strategies I use to engage all students in the nonfiction reading component of the KnowAtom science curriculum.
KnowAtom's next generation science standards (NGSS)-designed curriculum uses a similar routine for each lesson so that students begin to know what to expect. For each lesson within every unit, we start out reading. Students then take part in a Socratic dialogue using what they've learned from the reading. Next, we plan for a hands-on experiment, investigation, or engineering prototype. To wrap up the investigation, teams share their conclusions and debrief. As you can see, the nonfiction reading provides the launching point for each lesson.
No matter what level a student is reading at, whether they are an English language learner or whether they are predominantly a visual vs. an auditory learner, it's important that they can access the information in the reader upfront. To help students with different types of learning styles access the nonfiction text, teachers must understand how students learn differently. One popular model is the VARK learning styles theory. VARK identifies four different learning styles: visual, auditory, kinesthetic, and reading/writing. While most students have a combination of these different types of learning styles, some students learn predominantly from only one.
Connecting new phenomena to past experience
When beginning a new lesson, teachers should consider what knowledge and experiences students bring with them to the class. By establishing a common background when introducing new phenomena, teachers help level the playing field for students who are at different places along their learning journey.
For example, if we're investigating friction and the impact that a dog sled might have moving over snow, that context would be really difficult for a student who hasn't experienced snow to think about. "I don't understand because I don't know what it's like to walk on snow. I don't know the properties of snow. I haven't experienced that," the student is thinking. With the KnowAtom curriculum, the text before every unit helps give every student a common background and some insight into the phenomena they're about to explore.
For students with reading/writing predominance in their VARK learning style, reading the text before the hands-on experiment helps them understand the new concept when it is introduced. But that's not the only type of learning style you have in your classroom. Visual learners are better supported by the visuals in the nonfiction reader, including photos, charts, and graphs with explanatory text. Auditory learners may learn best from classroom discussions about the reading and can be supported by tools like sentence starter frames and annotating the text, so they come to the class discussion with the right questions to ask. Finally, kinesthetic learners learn from doing – and the tactile experience of completing an engineering project related to the new concept will help them better understand the lesson.
Another way students with all different types of learning styles can relate to the nonfiction text in the KnowAtom student readers is by connecting the new information to current knowledge – what they've learned before. Students start to think about, "Oh, I remember learning a little bit about that last year," or "I experienced something like this when I was cooking at home and the water started to boil." When working in pairs, small groups, or as a class – teachers can help students connect new phenomena with current knowledge by asking questions about what they've learned from the text and what it reminds them of.
KnowAtom's introductory text helps students start to think about what they will be exploring in the hands-on activity. It introduces or reinforces the vocabulary needed for the Socratic discourse, so students feel more comfortable joining in the classroom discussion. When using KnowAtom's NGSS-designed curriculum, we challenge our students to act like scientists and engineers, interacting with their peers in a professional setting. This helps level the playing field even further because all students are accessing the same vocabulary when discussing the new phenomenon and understand the rules of engagement when taking part in the classroom discussion.
Tools to strengthen reading fundamentals for all types of learning styles
One of the first things I do to help improve access to the reading material for all students is using prereading tools. The majority of my students are English learners, so they are often not reading at grade level yet. One tool I use to help them access the text is focusing on pictures. Asking students to find meaning in the images in KnowAtom's student readers and using a picture thinking graphic organizer helps them identify the images' object, action, and property. Students build critical thinking and active reading skills as they wonder what they will be reading about through the images and connect it to their current knowledge. This can be done together as a class, or in small student groups, or individually.
Topics: Next Generation Science Standards, higher order thinking, Socratic dialogue, Expert, Middle School Science Curriculum, Phenomena-led teaching, Next Generation Science, Implementing New Science Standards, NGSS-Designed Curriculum, Remote Learning, Picture Thinking
What is a KWL chart, and how is it used in teaching science? Let's take a look first at what the 'KWL' stands for – it's an acronym for what students KNOW, WANT to know, and will LEARN during a lesson. KWL charts are graphic organizers that help students collect information before, during, and after a unit. Using a KWL graphic organizer supports the constructivist teaching model – the idea that deeper learning happens when students are actively involved in the learning process instead of passive recipients of new information.
When teachers use KWL charts to introduce new ideas and topics, they help students identify what they already know about the topic and better understand the objectives of the lesson. KWL charts can also be used by teachers to monitor student success. KWL charts help guide students through nonfiction texts, as they track their progress in three columns titled KNOW, WANT, and LEARNED. There are many different KWL chart format examples, and they can be used to teach a variety of topics and subject areas. I am going to share how I used a Picture-Thinking graphic organizer (one type of KWL chart) with the KnowAtom science curriculum to implement the Picture-Thinking reading strategy. This graphic organizer is even better than a KWL chart because students are working within a context to identify what they know, want to know, and what they've learned. I have been a teacher for about 20 years, and for the last five years of my teaching I have used the KnowAtom curriculum.
KWL Charts and Picture-Thinking Reading Comprehension
The picture-thinking routine is one of my favorite routines. I started using this in my classroom about two years ago, and it really made a huge difference in my students' engagement with nonfiction texts. When I made it part of my regular classroom routine, students started thinking in such different ways. I'm going to take you step-by-step through exactly how to implement this routine in your own classroom, using the Picture-Thinking graphic organizer to help.
What is a "picture thinker?" A picture thinker is someone who thinks more in pictures than in words or sounds. Incorporating the picture-thinking routine in your classroom will help not only those students who think "in pictures," it's a great way for all students to make strong connections between the context and new vocabulary words, concepts, and what they already know. Here's an example of a Picture-Thinking KWL graphic organizer I use in my classroom:
As a science teacher for over 20 years, I’ve seen a lot of teaching strategies come and go. Today, the focus is on Next Generation Science Standards (NGSS) to help prepare students to join the workforce of the future. The teaching methods required by NGSS are based on constructivism – the idea that learners actively create new knowledge and understanding based on what they already know. Concept mapping is one way to help students link new ideas to knowledge they already have.Continue reading
Topics: Next Generation Science Standards, NGSS Assessments, STEAM, interactive science, Professional Development, Inquiry Based Learning, STEAM Curriculum, Phenomena-led teaching, Next Generation Science, Implementing New Science Standards, NGSS-Designed Curriculum, Next Generation Science Classroom Instruction, science education, Remote Learning