CRUSH SCHOOL

I blog on Brain-Based Learning, Metacognition, EdTech, and Social-Emotional Learning. I am the author of the Crush School Series of Books, which help students understand how their brains process information and learn. I also wrote The Power of Three: How to Simplify Your Life to Amplify Your Personal and Professional Success, but be warned that it's meant for adults who want to thrive and are comfortable with four letter words.

Introductory Activities in Science: Using NGSS the Right Way to Engage Students

The first few days of science class set the tone for the entire year. Ideally, the activities we design for the first week of school lead to classes buzzing with curiosity, where students are actively engaged in uncovering the mysteries of our world. Such is the aim of the Next Generation Science Standards (NGSS).

However, getting started with NGSS can be overwhelming, because it asks a lot of science teachers. Unlike past academic standards, the NGSS isn’t just a complicated list of content to be first deciphered and then covered. It is that and then some.

First, we need to understand what the standard benchmarks actually call for.

Then, we need to decipher what the NGSS powers that be want from us.

Next, we have to learn the methodology they lay out for us to follow.

Finally, we are tasked with creating suitable learning experiences.

Let’s take a look.

The End Goal of NGSS Deciphered

The end-of-their-academic-road goals of NGSS are for students to (1) learn those really important scientific concepts that often elude the traditionally-educated, (2) give them a general understanding of how stuff works, and (3) make them more informed and skilled citizens capable of working collaboratively to find and use relevant information to innovate and propose solutions to present and future problems.

The NGSS Method Deciphered

The madness, I mean method, to achieve the NGSS end goals is to help students build a deeper understanding of important, general science concepts (aka Crosscutting Concepts or CCCs) by:

  1. starting with a phenomenon (an observable event that happens naturally or as a result of human activity),

  2. applying Science and Engineering Practices (SEPs - expanded take on the scientific method that incorporates engineering design and process), and

  3. using subject-specific Disciplinary Core Ideas (DCIs) to “solve” the phenomenon, or explain why and how it happens.

Of course, the design of suitable, NGSS-aligned learning experiences falls on the teacher and it is both fun and time-consuming.

Fun, because we are creating meaningful, relevant, and engaging learning experiences and performance assessments.

Time-consuming, because we are creating meaningful, relevant, and engaging learning experiences and performance assessments: multi-day lessons, activities, self-guided inquiries, and projects.

Of course, it gets easier with time, as we create a template we can use to streamline subsequent learning experiences and gain more expertise in teaching a particular subject.

But first, we need to bring our students back from the dark side.

Engaging Students at the Beginning of the School Year

How do we get students to care about science?

First, we need to move away from the idea that “science lives in a textbook.” The traditional way of teaching led to many students viewing science as a discipline reserved for “those few, very smart kids” and a subject difficult for “the common folk” to succeed in. These stereotypes are just as damaging as they are inaccurate.

Thus, our job becomes making science more approachable by making it more doable.

Phenomenon Based Learning (PhenBL) holds this promise as “the science of things” is removed from the dead textbook and placed in the world of the living to be investigated, its concepts deconstructed, and its skills learned through the examination of real events that occur in the real world.

“Here it (the phenomenon) is. Now go and find out and explain using science what it is, why it happened, and how it happened” - we say to the kids and let them take charge of their own learning of science - batteries not included, but guidance and support given if and when necessary.

Learning Experiences the NGSS Way

and my way…

What you’ll find below is one way I design lessons to fit the NGSS paradigm. Hopefully, you will find this NGSS Learning Experience Template useful, but it is not the only way of doing it.

First, I think about the big ideas of the unit and a phenomenon I can use that can be explained with one or more of those ideas. Then, I lay out a rough plan of how students will learn and what they will create to provide as evidence of learning. Take a look at the slide above I created as part of the lesson on the systems approach and using phenomena to study science. As it was designed for my Earth and Space Science class, I introduced the idea of phenomena first, then had students create a quick poster (see the directions slide below) on the Earth’s four spheres.

Earth and Space Science Lesson on the 4 Earth’s Spheres (atmosphere, hydrosphere, geosphere, and biosphere) Classroom Poster Activity

I wanted to emphasize the Systems Approach, an idea that changing a part of one sphere (atmosphere, geosphere, biosphere, and hydrosphere) will affect parts of the other spheres, as they are connected by various matter interactions (the water cycle, spread of pollutants etc.).

On the second day, we reviewed the key ideas from day one and moved on to creating a final product - a video on how an anthropogenic (human-created) phenomenon might affect each of the four spheres - that served as evidence of my students understanding the content they were learning.

One of the requirements for the video was that my students create various models to explain how the anthropogenic phenomenon they chose affects each sphere. Developing and using models increases student understanding of different models scientists use to represent concepts, data, or findings, provides an effective way of presenting complex systems ideas, or solutions, and is one of the eight Science and Engineering Practices (SEPs) students should master during their academic careers.

Grab the 9-slide NGSS Learning Experience Template (FREE) if you like the approach so you can use it in your content area.

And, if you teach Earth and Space Science and would like a three- to four-day intro lesson, check out this Anthropogenic Phenomenon Investigation ($5).

How to NGSS Like a Jedi

Just as the Jedi use the phenomenon of the force to bend the Universe to their will, teachers can use real life phenomena to bend student minds toward learning important science concepts.

I hope Yoda and the NGSS peeps would agree that it is perfectly ethical to [Jedi mind] trick our science students into using key unit of study ideas (DCIs) and key science concepts (CCCs) to explain real world events (phenomena) they observe in life, online, or in the media by applying science and engineering practices (SEPs) during the creation of their final product.

Giving them light sabers would be way cooler, but the scientists are still working on miniaturizing the handles.

BOOKS & TOOLS

Phenomena Poster
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Earth Science Reasons for Seasons Project
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Back 2 School Classroom Bundle of 8 Posters
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Mistakes Are... Poster
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Transforming Science Learning with Science and Engineering Practices

The 8 Science and Engineering Practices (SEPs) by NGSS

Whether you are the proponent of the seemingly never ending evolution of academic standards or not, I hope you will agree with me that we need to shift away from the model of education in which students are asked to memorize and mindlessly recall facts, in favor of a system that empowers them to think critically, encourages them to use creativity, and gives them ample opportunity to gain confidence in their ability to solve problems.

Enter the Next Generation Science Standards, or NGSS. The NGSS writing team recognized that present day jobs require more aptitude in science, technology, engineering, and mathematics (STEM) than in the past. They also recognized that this trend is intensifying - as we innovate and become more advanced technologically, STEM-skilled workforce is more in-demand - regardless of the job type.

To this end, the NGSS identifies eight specific Science and Engineering Practices (SEPs) that students should experience throughout their education. SEPs outline the behaviors and activities that scientists and engineers undertake as they investigate phenomena and develop solutions to problems and are a component of NGSS designed to provide a pathway to engaging students in the processes of scientific inquiry and engineering design.

Here’s the scoop:

Developing and Using Models

This practice includes creating and using physical, conceptual, and computational models to represent and understand phenomena and to predict behaviors in science and engineering.

Classroom Example: Students create a 3D “Reason for Seasons” model to show why many locations on Earth experience spring through winter.

Asking Questions and Defining Problems

This practice involves formulating questions to clarify problems, seek additional information, or challenge existing concepts in science and engineering.

Classroom Example: Students investigate the effects of an El Niño event on their local weather by asking questions about factors that affect weather and defining the problem of how the El Niño will affect factors such as temperature and precipitation.

Planning and Carrying Out Investigations

Students design and perform experiments to test hypotheses and collect data to answer specific scientific questions or solve engineering problems.

Classroom Example: Students design and perform an experiment to test the albedo of different land surfaces such as soil, sand, grass etc.

Analyzing and Interpreting Data

This practice focuses on examining data collected from investigations to identify patterns, trends, and relationships, and to draw meaningful conclusions.

Classroom Example: Students analyze weather data for a month to identify how variables such as pressure affect wind direction and precipitation in their area.

Using Mathematics and Computational Thinking

This practice involves applying mathematical concepts and computational tools to analyze data, represent physical variables, and solve scientific and engineering problems.

Classroom Example: Students use math to calculate their carbon footprints based on energy consumption, transportation, and lifestyle choices, then analyze ways to reduce it, and present it as a percentage.

Constructing Explanations and Designing Solutions

Students develop evidence-based explanations for natural phenomena in science and create innovative solutions to problems in engineering.

Classroom Example: Students design and build a water filtration system using household materials, explaining the science behind how each component removes contaminants.

Obtaining, Evaluating, and Communicating Information

Students gather, assess, and effectively share information from various sources.

Classroom Example: Students research renewable energy sources and present their findings in an infographic, highlighting the benefits and challenges of each source.

Engaging in Argument from Evidence

This practice entails evaluating and arguing (in a good way…) based on evidence to support or refute claims, facilitating the validation of scientific findings or engineering solutions.

Classroom Example: Students debate the potential impacts of a new local construction project e.g. a mall, on the environment, using research and data they find online to support their positions.

So Why Should We Care?

In life… shift happens. It is happening in the world of work, as it shifts away from individual-based, repetitive task completion to a system that requires more creative communication, increased collaboration, and complex problem solving. Our students need practice to build these skills. SEPs might not be the only way, but they provide a path that doesn’t suck and can help teachers lead the way.


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BOOKS & TOOLS

Phenomena Poster
$3.00
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Earth Science Reasons for Seasons Project
Sale Price:$7.00 Original Price:$9.00
Back 2 School Classroom Bundle of 8 Posters
Sale Price:$8.00 Original Price:$16.00
Because... Chemistry Unisex T-Shirt
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Mistakes Are... Poster
$3.00
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The Problem-Solving Classroom: Creating Critical Thinkers of Tomorrow

In a rapidly evolving world, the ability to solve complex problems is more crucial than ever before. Because of this, teachers’ responsibility extends beyond imparting knowledge; we must equip our students with essential life skills, and problem-solving is at the forefront. This blog post will delve into the significance of teaching problem-solving skills and provide examples of activities that teachers can implement to nurture this critical skill in their students.

The Importance of Problem-Solving Skills

Problem-solving is a multifaceted skill that benefits students in various aspects of their lives, from academic success to personal and professional growth. Let’s take a look at why teaching problem-solving skills is of paramount importance.

  1. Developing Critical Thinking

    Problem-solving encourages students to think critically and analytically. It requires them to assess a situation, identify the problem, and develop a systematic approach to find a solution. These cognitive processes foster intellectual growth and curiosity.

  2. Growing Resilience

    Life is full of challenges and setbacks. Teaching problem-solving equips students with the resilience to face difficulties head-on, adapt to change, and persevere through obstacles.

  3. Boosting Creativity

    Problem-solving often demands thinking outside the box. When students encounter diverse problems, they learn to generate creative solutions and apply their creativity to various aspects of their personal and professional lives.

  4. Preparing for the Future

    In the age of automation and artificial intelligence, problem-solving skills are highly valued by employers. Students with strong problem-solving abilities are better equipped for the job market and future career success.

Activities to Teach Problem-Solving Skills

Problem-solving is an important skill, but we already knew that. Let's explore some activities teachers can use to help students develop better problem-solving.

  1. Brain Teasers and Puzzles

    Challenge students with riddles, logic puzzles, and brain teasers that require them to think critically and figure out solutions. These can be short, focused warm up (bell ringer) activities or brain breaks in the middle of the class that call on students to solve a problem that uses their knowledge of science or other discipline. Check out the science teasers from Braingle or the math teasers in this Edutopia article.

  2. Group Brainstorming and Problem-Solving

    Encourage group discussions to share various approaches to solving the same problem, fostering collaboration and multiple perspectives. An example of this is giving various groups of students the same problem to solve and then have each group compare their unique solutions. Check out the Woodbury Water Tower engineering challenge I use with my Principles of Engineering students.

  3. Real-World Problem Solving

    Present students with real-life scenarios or current events that require problem-solving skills. These scenarios can range from ethical dilemmas to environmental issues. Then, ask students to research, analyze, and propose solutions to these problems, promoting active engagement and global awareness.

    For example, you might ask your students to create an advertising campaign to encourage drivers to switch to hybrid or electric vehicles to alleviate the issues of air pollution, greenhouse effect, and climate change. Such activities do not only lead to fact-finding and proposing solutions for the actual problem, but also lead to the examination of the social issues associated with the problem and looking at ways of overcoming society’s resistance to making real changes.

  4. Role-Playing

    Use role-playing activities to simulate real-life situations. For example, students can act as diplomats negotiating a peace treaty or as business owners facing financial challenges. Role-playing helps students develop empathy, effective communication, and decision-making skills, which are all important facets of effective problem-solving.

  5. Design Thinking Projects

    Introduce students to the design thinking process, which involves empathizing, defining problems, ideating solutions, prototyping, and testing. Assign design thinking projects that require students to tackle real-world problems through a structured, iterative approach. Check out the Design Thinking Your Ideal Learning Experience series of lessons I use at the beginning of each school year.

  6. Project or Phenomenon-Based Learning

    Implement project-based learning (PBL) or phenomenon-based learning (PhenBL) in your curriculum. Such approaches encourage students to work on longer-term, open-ended projects that require research, collaboration, and problem-solving.

    For example, students could design and build a sustainable garden for their school, addressing ecological and logistical challenges along the way. Or, you can ask students to create a multimedia product that showcases what they’ve learned and proposes solutions to a problem they investigated.

So What?

Teaching problem-solving skills is a fundamental responsibility of educators. These skills empower students to think critically, adapt to change, and become future-ready. By incorporating activities such as brain teasers, real-world problem solving, role-playing, design thinking, and project/phenomenon-based learning into the curriculum, teachers can foster a generation of innovative and resilient problem solvers who are prepared to tackle the challenges of the 21st century. Let’s equip our students with the tools they need to navigate an ever-changing world and make an impact we and they can be proud of.

BOOKS & TOOLS

Phenomena Poster
$3.00
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Mistakes Are... Poster
$3.00
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Back 2 School Classroom Bundle of 8 Posters
Sale Price:$8.00 Original Price:$16.00
Because... Chemistry Unisex T-Shirt
from $15.00
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Size:
Quantity:
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