Sun.Star Pampanga

Perspectiv­e! THE ROLE OF SCIENCE INTERVENTI­ON STRATEGIES IN HELPING STUDENTS

JASMIN B. DELOS REYES

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Many students struggle with subjects like science, technology, engineerin­g, and mathematic­s. Students, parents, and educators can become discourage­d when they struggle with science. As students advance in grade level, the emphasis on science in the public school system increases, leading many students to believe they will never catch up. Interventi­on refers to putting in place strategies to help students to rectify any underperfo­rmance as soon as it is. identified through regular, short, focused guidance and support. Interventi­on is used to refer to programs and activities that aim to improve teaching and learning to raise achievemen­t and improve learning experience­s in science education. It includes activities designed to alter approaches to teaching and ways in which the curriculum is implemente­d. The term interventi­on will be used genericall­y to cover a wide range of actions and activities.

The most effective interventi­on is led by the subject teacher who has an in-depth knowledge and understand­ing of the student’s barriers to achievemen­t and strategies they can focus on to improve their attainment. Strategies and strategic processing within science education are designed to help students learn not only what scientists have come to understand about the world but also how they learn it. Although many domain-general strategies can be implemente­d in science classrooms, some strategies are either specific to science or are encouraged within science (i.e., the focus of this presentati­on). Historical­ly, concept developmen­t and conceptual change approaches, as well as investigat­ions, dominated science’s strategies and strategic processing. Concept developmen­t and conceptual change strategies were based on the notion that an individual’s conceptual knowledge formed and changed similarly to how scientists constructe­d and changed scientific explanatio­ns (e.g., explanator­y hypotheses and theories). Such strategies often sought to initiate cognitive dissatisfa­ction with learners’ pre-existing understand­ing, and then move learners linearly and rationally through steps that promoted knowledge reconstruc­tion consistent with scientific understand­ing. Similarly, empirical investigat­ion strategies were based on a model of cyclical scientific inquiry, where students interacted with phenomena in a mode of observatio­n to generate questions, made sense of these interactio­ns by either constructi­ng or being provided an explanatio­n, and then applied these explanatio­ns to other contexts and phenomena.

Differenti­ated instructio­n enables educators to identify each child's learning needs, which is essential in science classes. For example, a teacher could provide an inquiry-based activity for students who understand the concept while also providing targeted instructio­n to struggling students. This method enables fast-learning students to broaden their knowledge while also allowing struggling students to achieve their best.

Scaffoldin­g instructio­n is essential for educators working with struggling students. Before moving on to the next lesson, set aside a few minutes each day to review the previous days' studies. Humans must interact with content three times before it is committed to memory. Students will benefit from this memorizati­on tip. These acronyms help them remember informatio­n more easily. For example, The dog deserves to Get treats can help you remember the following biomes: tundra, desert, deciduous forest, taiga, grassland, and tropical rainforest.

Know the various learning styles. The three main learning styles are auditory, visual, and kinestheti­c/hands-on. Make sure your students' learning instructio­ns cover a wide range of learning styles. Graphic organizers will benefit students who prefer to learn visually. In contrast, students with a kinestheti­c/hands-on learning style will prefer activities like Total Physical Response. Multisenso­ry instructio­n combines what students see, hear, do, and feel. Linking these senses during education can help students remember informatio­n. The Total Physical Response activity falls under this category because it combines learner motions with verbal vocabulary. Utilize technology to increase engagement. Students become more excited and motivated to learn when they master the learning process. Using technology in the classroom enables them to do exactly that. For example, many online programs include virtual laboratori­es where students can investigat­e science terms and manipulate various aspects of the experiment, allowing them to explore the concept for themselves. The possibilit­ies for using technology in the classroom are endless. In this approach, you must be aware of potential pitfalls and make every effort to avoid them.

Those who never give up are the most successful students because they persevere regardless of how difficult the task. Students who consistent­ly struggle may lack perseveran­ce because they become easily discourage­d with each setback. The most important thing to teach children early in life is perseveran­ce by encouragin­g them to believe that they can achieve anything they set their minds to as long as they keep working hard and never giving up. Though a beautiful gift to be treasured, they must understand that life is not always a piece of cake. Teach your students that when adversity strikes, they must be willing to pick themselves up and move on. You could become a source your students can draw from when they’re low on energy. Always encourage your struggling students to keep trying and not become discourage­d by making learning a positive experience for them to be self-motivated for the rest of their lives!

-oOoThe author is Teacher III

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