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.

Filtering by Category: Science

Creating Performance Assessments for Phenomenon-Based Learning

As concerns grow that traditional assessments such as tests frequently fall short of capturing the depth of students' understanding and fail in measuring their ability to apply knowledge in real-world scenarios, Phenomenon-Based Learning (PhenBL) has emerged as a student-centered approach that prioritizes building comprehension through active inquiry. To align with this innovative instructional method, educators are turning to performance assessments – powerful tools that have the potential to unleash creativity, transformative skill-building, and deeper learning.

Understanding Phenomenon-Based Learning

Phenomenon-Based Learning is an inquiry-driven approach that uses real-world phenomena to engage students in exploration. Rather than starting by explaining facts and concepts to students, PhenBL is predicated on the learners investigating phenomena and forming understandings of the underlying principles (facts and concepts) behind these phenomena.

The Limitations of Traditional Assessments

Traditional assessments, such as multiple-choice exams, often assess rote memorization and superficial knowledge. They rarely measure skills such as critical thinking and problem-solving or in-depth knowledge. These assessments also fail to show students' ability to apply knowledge to real-life situations, which is a central goal of PhenBL and should be the goal of all learning.

Benefits of Performance Assessments

Performance assessments offer a transformative alternative to traditional testing methods. They focus on students' ability to apply knowledge, skills, and strategies to authentic, real-world scenarios. By leveraging performance assessments in phenomenon-based learning, we can:

  1. Measure Deeper Understanding: Performance assessments allow educators to observe how well students comprehend and apply scientific concepts in practical contexts. For instance, students could conduct experiments, analyze data, and draw meaningful conclusions based on their observations.

  2. Promote Critical Thinking: Performance assessments encourage students to think critically and creatively as they tackle complex problems related to the phenomenon. This enhances their ability to make connections, analyze information, and devise innovative solutions.

  3. Teach Collaboration: Many performance assessments involve group projects or problem-solving, which cultivates effective teamwork and communication skills. Collaboration also enables students to share their unique perspectives and learn from each other.

  4. Provide Timely, Constructive Feedback: Many meaningful performance assessments take more than one day to complete allowing opportunities for formative assessment. As teachers check in with various teams, they can provide timely feedback that guides students' progress. Such personalization enables teachers to assess understanding, keeps students on track, drives continuous improvement, and supports students' growth.

  5. Enhance Engagement: Performance assessments take advantage of student interests and provide real-life relevance. Engaging in hands-on investigation and creation builds intrinsic motivation and enthusiasm for learning of content as the PhenBL vehicle connects the world of school with the world outside of it.

Examples of Performance Assessments in Phenomenon-Based Learning

  1. Design and Conduct an Investigation: Students can be tasked with designing and conducting their own investigations related to the phenomenon in question. They can develop hypotheses, plan experiments, gather data, and draw conclusions, showcasing their inquiry and experimental skills and gaining deeper knowledge of the concepts. For example, you could challenge students to design a school-wide survey on a social or psychological topic or to use the web as a resource to design an experiment that demonstrates and helps them explain (and thus learn) a science concept.

  2. Create a Multimedia Presentation: Students can create multimedia presentations such as explainer videos that contain models of phenomena concepts, or infographics that explain and exemplify a phenomenon to a broader audience. The key for teachers is to combine visual and verbal communication skills and challenge students not to read the information they wrote down, but rather convey the complex ideas in a simple way that is effective in both showing what the students learned and teaching the audience about the concepts and mechanisms responsible for the phenomenon studied. Check out my Coral Bleaching Project to get an idea for how to set this up.

  3. Solve Real-Life Problems: Challenge students to apply their understanding of the phenomenon to solve real-world problems. For example, they might devise sustainable solutions for an environmental issue around you school, such as lack of composting or recycling. Or they might propose an engineering design solution for some observed inefficiency. The idea is not to have students change the world in situ, though that’s highly desirable if possible, but to have them practice critical thinking, problem-solving, and design skills in an authentic way while learning content at the same time. For example, they could research and design a safer, or more interesting playground for the elementary school nearby. Their dream playground might not get built but their skills will be.

Learning and Growing through Performance Assessments

Performance assessments can provide a dynamic and effective means of evaluating students' learning in Phenomenon-Based Learning. By focusing on application, critical thinking, and collaboration, these assessments align perfectly with the goals of PhenBL. Embracing performance assessments empowers students to demonstrate the depth of their understanding and equips them with the skills they need to succeed in an ever-changing world. As educators continue to explore the potential of Phenomenon-Based Learning, performance assessments stand out as a valuable ally in nurturing a new generation of engaged, inquisitive, and capable professionals.


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BOOKS & TOOLS

Phenomena Poster
$1.50
Mistakes Are... Poster
$3.00
Back 2 School Classroom Bundle of 8 Posters
Sale Price: $5.00 Original Price: $8.00
Because... Chemistry Unisex T-Shirt
from $15.00

Phenomenon-Based Learning: Lesson-Level vs Anchoring Phenomena

Using phenomena to engage students and drive learning is what Phenomenon-Based Learning (PhenBL) is all about.

First, identify the core idea along with its supporting ideas you want students to learn.

Second, choose a phenomenon that will lead students to discovering these ideas.

Third, give students the time and the tools to investigate. Initially, you might have to guide their investigations and help them break down phenomena.

Fourth, have your students examine and construct models that show and explain various concepts that describe and solve the phenomenon studied.

Fifth, find out what your students learned by using a thoughtful performance assessment (next post).

And don’t forget to involve peer and teacher collaboration, discussion, questioning, feedback, and common learning experiences to keep everybody on track while exploring phenomena.

Two types of phenomena

If you are fairly new to Phenomenon-Based Learning and the above steps make your head spin, you are not alone. PhenBL lesson design requires a lot of thoughtful planning and the first few months are the hardest, as is the case with starting, learning, and becoming good at every new thing life throws at us. But it gets easier, and once you get a full school year under your belt, you can mostly reuse and recycle from year to year and just tweak that which needs tweaking.

But your anchoring and lesson phenomena can stay the same. Unless better phenomena occur shortly before you are due to teach a related concept and you just do not want to (nor should you) pass up such easily-relatable opportunities.

Anchoring phenomena and lesson phenomena are both components of Phenomena-Based Learning, but they serve different roles in the instructional process.

Lesson Phenomena

Perhaps the fastest way to get comfortable with PhenBL is to choose and use lesson-level phenomena. This will allow you to repeat the lesson design cycle over and over in a short time span and lead to a level of comfort that helps you avoid the “how do I do this again?” brain pain.

Generally, lesson phenomena are used to drive single lessons that may last one or a few days. They are chosen to support the learning objectives of each lesson and require students to gain understanding of the concepts named by these objectives. While not too easy, lesson phenomena can be solved in a day or a few days.

Lesson-Level Phenomenon Example

Watching vinegar and baking soda react and form carbon dioxide is a good example of lesson-level phenomenon that might be used to introduce the concept of chemical reactions. As the vinegar (acetic acid) and the baking soda (sodium bicarbonate) react, students observe bubbles (carbon dioxide) forming. Teachers might have students measure the temperature before and after the reaction and write down the observations and questions these observations bring up. Then, students could use online resources (or the textbook) to answer the questions they generated.

Teachers can support students in their investigations by checking on the specifics each group is researching and asking leading questions that help students learn how to distinguish chemical reactions from physical changes or how to set up a simple experiment to test the identity of the produced gas. Then, students may be encouraged to repeat the original experiment utilizing their gas test - lighting a wooden splint and inserting it into the carbon dioxide enriched atmosphere.

This observable phenomenon serves as a concrete example to teach students about chemical reactions and can be “solved” in one or two days, depending on the scope of the lesson.

Anchoring Phenomena

Anchoring phenomena, or anchor phenomena, are used as starting points for entire units of study. They are carefully selected to engage students' curiosity and serve as a focal point for learning and inquiry throughout the unit. An anchoring phenomenon is much more difficult to solve and requires several weeks to be fully understood and explained by students. Each “anchor” is supported with multiple, related lesson-level phenomena and concepts these phenomena represent that help break down the anchor concepts into more digestible chunks.

Anchoring Phenomenon Example

Watching a series of images or a brief video about recent record temperatures, forest fires, droughts, floods, and other extreme weather events is a great way to introduce a unit on global climate and climate change or a unit that focuses on impacts of human activity on the Earth systems.

As any good anchor should send students down a rabbit hole of big and small ideas that support an overarching unit concept, this phenomenon, one that leads to the understanding the ins and outs of global climate change, should lead students to the investigation into global warming, greenhouse effect, heating of the oceans, shifting weather patterns, burning of fossil fuels, increased occurrence of extreme weather, and other human impacts and causes of climate change.

Such an anchoring phenomenon will take weeks and multiple, connected lessons to “solve” and will need to be supported with several lesson-level phenomena to focus students on deeply understanding one major global-climate-change-related concept at a time.

Anchoring vs Lesson Phenomena

In summary, anchoring phenomena are overarching real-world events that initiate an entire unit of study, providing a context for the exploration of concepts. They engage students and set the stage for deeper inquiry. On the other hand, lesson phenomena are specific examples or instances of observable events used within individual lessons to reinforce the concepts covered in that particular session. They support the learning objectives of each lesson and contribute to students' understanding of the broader core idea introduced by the anchoring phenomenon.


If you found this post helpful, sign up for my Teaching Tips, Resources, & Ideas Newsletter to get the next article on Creating Performance Assessments when it drops. It’s totally free.

BOOKS & TOOLS

Phenomena Poster
$1.50
Mistakes Are... Poster
$3.00
Back 2 School Classroom Bundle of 8 Posters
Sale Price: $5.00 Original Price: $8.00
Because... Chemistry Unisex T-Shirt
from $15.00

Phenomenon-Based Learning: Model-Making Tools

Phenomenon-Based Learning (PhenBL) ignites curiosity, promotes critical thinking, and fosters an in-depth understanding of the world through the use of phenomena as starting points that challenge students to explore and unravel their mysteries through self-directed investigation.

But while investigating phenomena provides the mystery, the full potential of Phenomenon-Based Learning is unlocked through student creation of models that further understanding of the core and supporting ideas behind the phenomenon. This is because by providing students with model making tools, we equip them with the means to visualize, experiment with, and make sense of complex concepts in an active, engaging way.

In the previous article, I discussed how to help students make and use models. In this one, I want to explore how model making enriches the PhenBL experience and provide you with a list of model making tools, starting with the essentials and ending with the (almost) impossibles.

The Power of Making Models in the classroom

There are many benefits to having students make models in the classroom. All of them help students acquire and practice skills they’ll need to further their education and careers. The graphic below shows a few important ones.

Model making tools

Model making materials enable students to visualize complex concepts. By constructing models, they gain a clearer understanding of how different elements interact and how different systems work. This is because models nurture deeper conceptualization of the phenomenon at hand (How to introduce the 4 types of models to students).

The list below contains all of the Amazon links I emailed to our school district science guy (you know) before the term in which I was to start Phenomenon-Based Learning in Earth and Space Science. I spent the time looking for the best deals - both in terms of price and amount of each material needed to last me two to three years. I am confident I did a decent job, but if you find a better deal on anything, please leave a link in the comments below.

The Essentials

Physical Models:

Visual (not Computer-Generated) Models:

The Nice to Haves

Mathematical and Computer-Generated Visual Models:

  • laptops or desktops or tablets

  • graphical visualization software / apps

  • digital simulation tools

Graphical visualization tools such as Excel or Google Sheets are great for creating graphs, charts, and diagrams to represent data and patterns and help students the communicate their findings. Other tools such as Canva and Piktochart help in creating posters, infographics, concept maps, flowcharts etc.

Digital simulation tools, such as Minecraft or PhET let students create and manipulate complex simulations that might be challenging to achieve physically.

While these digital tools are pretty standard these days and it is important to help students learn how to use them to make computational models, they can often be replaced with visual and physical models that use traditional prototyping materials.

The Awesomes

  • microcontrollers

  • data sensors

Integrating microcontrollers and sensors such as Vernier, Vex, or Arduino into models can make them interactive, enabling students to collect and analyze real-time data related to the phenomenon being studied.

The Almost Impossibles (But Not Really)

  • Augmented Reality (AR)

  • Virtual Reality (VR)

AR and VR technologies allow students to immerse themselves in virtual representations of the phenomena, providing an incredible sense of presence and engagement. My hope is these tools will soon become widely available for classroom use.

Model Everywhere and all the time

Because why not?

Instead of students just telling you about a concept, have them show you and explain it as they show you. Models can be as simple as a poster that explains and exemplifies a concept or as complex as a virtual world one can walk through to learn about something. The key is to provide students with multiple opportunities to make them. Hopefully, this will help them make a good life for themselves and others.


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*Disclosure: I only recommend products I use myself. This post contains affiliate links at no cost to you that may earn me a small commission to help pay for this website.

BOOKS & TOOLS

Phenomena Poster
$1.50
Mistakes Are... Poster
$3.00
Back 2 School Classroom Bundle of 8 Posters
Sale Price: $5.00 Original Price: $8.00
Because... Chemistry Unisex T-Shirt
from $15.00

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