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Social Sci LibreTexts

1.7: Apply and Reflect

  • Page ID
    277738
  • This page is a draft and under active development. Please forward any questions, comments, and/or feedback to the ASCCC OERI (oeri@asccc.org).

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    Exercise

    Read the following anecdotes and answer:

    • How does the teacher recognize each child’s intelligence?
    • Why is it important for teachers to understand Multiple Intelligences?
    • What intelligences do you see are most valued in school?
    • How can schools begin to value all of the intelligences?
    Scenario 1

    Sofia, who was often considered “different” in her school. While her classmates excelled in traditional subjects like math and language, Sofia seemed to struggle with these, often receiving low grades. Her teachers, puzzled by her performance, labeled her as "not academically gifted."

    One day, Sofia's teacher, Mrs. Thompson, decided to assign a unique project for the class: each student would work on something that allowed them to showcase their strengths in different ways. Sofia, who had always been passionate about music and loved spending hours playing the piano at home, chose to create a musical composition that explained the process of photosynthesis. She designed a song with catchy lyrics and a simple melody, explaining how plants use sunlight to create energy.

    When Sofia performed the song in front of the class, everyone was impressed by her ability to convey complex scientific concepts in such an engaging and creative way. Her classmates, who had struggled to memorize the details of photosynthesis, found themselves humming the tune and recalling the process easily.

    Mrs. Thompson, realizing that Sofia's strength lay in musical intelligence rather than traditional academic skills, gave her special recognition for her creativity. She also noticed that other students with different interests — like a classmate who loved building things — had used their own talents to make intricate models of plant cells, while another student used dance to demonstrate movement in biology.

    Through this project, Mrs. Thompson understood that intelligence doesn’t come in one shape or form. Sofia wasn’t struggling with learning; she was simply expressing her intelligence in a way that was different from the conventional academic norms. It was a turning point for both the teacher and the students, as they all began to appreciate the diverse ways people can be smart — whether through music, movement, problem-solving, or social interaction.

    Scenario 2

    Ethan was a young boy growing up in a small rural village surrounded by forests, rivers, and fields. Unlike many of his classmates who spent most of their time indoors playing video games or watching TV, Ethan loved being outside. From a young age, he had a deep fascination with animals, plants, and the changing seasons. His parents often found him lying on his back in the grass, watching the clouds shift or carefully observing ants marching along a trail.

    One afternoon, his teacher, Mrs. Harris, assigned the class a project on ecosystems. Most of the students were unsure of where to begin. They sat in the classroom, flipping through textbooks, and scribbling down notes. But Ethan, with his passion for the natural world, was already outside, exploring the edge of the nearby forest. He had a small notebook with him, where he documented the different plants and animals he encountered. He even took notes on the soil and water in the stream, noticing how the water's clarity changed with the amount of rain that week.

    When he returned to school, Ethan shared his findings with the class. He spoke enthusiastically about the different species of birds he had observed, the types of trees that grew in specific parts of the forest, and the delicate balance between the plants and animals in the area. His classmates listened, fascinated by how much he knew and how he was able to explain the connections in nature in such detail.

    For his project, Ethan created a detailed map of the local ecosystem, showing the different habitats and the relationships between the various species. He even brought in a few plants he had carefully collected, explaining their role in the ecosystem, and how the plants helped support the local wildlife. His presentation was not only informative but also inspiring — it encouraged other students to spend more time in nature and think about the environment in a new way.

    Mrs. Harris recognized Ethan's remarkable naturalist intelligence — his ability to observe, classify, and understand the natural world around him. She praised his work and encouraged him to pursue his interests further. Ethan's project wasn't just about acing a class assignment; it was a reflection of his deep, intuitive understanding of the natural world, which he had nurtured since childhood.

    Scenario 3

    Liam had always been a quiet and introspective boy, often lost in thought even when playing with his friends. While others enjoyed playing sports or games, Liam spent most of his time solving puzzles or experimenting with numbers. Even at a young age, he was fascinated by patterns, sequences, and the ways things fit together logically.

    One day, Mrs. Thompson, his math teacher, gave the class a challenging problem: "If you have 100 coins, and each time you flip a coin, it lands heads up or tails down, how many flips does it take to guarantee that you have an equal number of heads and tails?" The students scratched their heads, unsure of how to approach it. Many of them quickly gave up or tried random guesses, but Liam was determined to figure it out.

    Instead of just trying to flip the coins randomly, Liam began thinking logically about the problem. He quickly recognized that it wasn’t about the outcome of each flip, but rather the total number of flips. "I know that for every coin, I have two possible outcomes: heads or tails," Liam thought. "If I want an equal number of heads and tails, I need to be sure the number of flips will allow for this balance, no matter the order."

    Liam went home that evening and set up a system to test different scenarios. Using a pen and paper, he mapped out sequences of flips, analyzing how the number of heads and tails changed with each flip. After several hours of calculations and diagrams, he discovered that to guarantee an equal number of heads and tails, you would need at least 99 flips — because with every flip, the number of heads and tails could be out of balance, but after 99 flips, the 100th flip would always create a situation where heads and tails are equal, no matter the results of the other flips.

    The next day, Liam proudly shared his solution with the class, explaining not only the answer but the logical steps he took to arrive at it. His classmates were amazed by his thought process and how he used abstract thinking and mathematical reasoning to solve the problem. Mrs. Thompson praised Liam for his ability to break down a complex problem and think critically about the solution, recognizing his exceptional mathematical intelligence.


    This page titled 1.7: Apply and Reflect is shared under a CC BY-SA 4.0 license and was authored, remixed, and/or curated by Kerry Diaz & Tenessa Sanchez.