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PHILOSOPHY

THE IMPORTANCE OF EQUITY AND DIVERSITY IN STEM EDUCATION

According the U.S Bearau of Labor statistics, in 2019 STEM Jobs had an average medium income of $90,000 as compared to non-STEM jobs at just below $40,000. STEM fields not only hold larger incomes, but also have higher employment rates, hold higher status in the U.S economy and education, and are the first to be funded by the federal and state government (Bartan & Tan, 2018).

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However, these same STEM  fields are predominantly filled with white, middle-class male workers (Bartan & Tan, 2018). 

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To add to this, despite the fact the American population is 13.4% African American, and 18.5% Hispanic, people of color are underrepresented in STEM fields (U.S Census, 2019). African Americans only make up 9% of STEM workers, while Hispanics make a low 6% of the STEM workforce (Funk & Parker, 2018).  As a teacher who currently teaches at a school were the population is 75% hispanic, this is extremely concerning to me. 

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Such underrepresentation is problematic for many reasons. First, unethical environmental hazards usually occur in low-income areas, which involve mostly people of color. In order to debate and combat such issues, adults and children within the community need to some knowledge or background in STEM education (Bartan & Tan, 2018). 

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Second, underrepresentation in these fields contribute to the wage gap. As mentioned earlier, STEM jobs are the highest paying jobs in America. This is not to say every person of color should become a scientist or engineer, however, from the statistics shown earlier, it is clear there is a lack of representation in STEM fields (Funk & Parker, 2018). 

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Third, because STEM is mostly dominated by white, middle-class males, the culture of STEM is primarily centered around white culture. This means people of color have to assimilate to join such fields. To the youth, a person of color can feel like an outsider due to the lack of seeing people like themselves (Bartan & Tan, 2018). 

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There are a number of factors that contribute to the  underrepresentation of minorities in STEM. Stereotype threat, for example, is when stereotypes inhibit a person to perform well academically due to societal pressures (Aronson, Fried, & Good, 2001). From the moment students enter their school doors, these stereotypes no only cause students of color to underperform, they also enforce the notion that STEM education is not for them . 

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Another important aspect is access to STEM equipment. In order to keep up with the constantly changing technological advances, funding such as new computers, new software, and coding gadgets are needed. In order to partake in next level science, proper and effective science equipment has to be purchased as well, ranging from glassware, electronic devices, and other gadgets. Access to unique engineering tools also costs money, money in which communities of color struggle to gain access to. These items that may be common place in many urban and sub-urban schools are seen as luxury in low-income and Title 1 schools. 

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The truth of the matter is, students of color start of at a disadvantage before even stepping into the classroom. 

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Factor in socio-economic disparities in minority communities from a long history of racial-injustice in America and it's not to difficult to see why STEM fields severely lack in diversity. Although great strides have been made over the past decade with an increase in women and minorities in STEM (Funk & Parker 2018), more need to be done to ensure our future generation has a fighting chance. 

 

So where does maker have to do with any of this? 

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The maker movement, as well as maker education, aims to make medium such as coding, electronics, and engineering more accessible to all students. Instead of making computers just another medium for the same direct teaching, the goal is for students to utilize these tools to make an artifact meaningful to them, allowing children to express themselves, which is severely lacking in STEM education.

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To look at it in a different way, the students knowledge serves as a bridge to creating a final product which represents their own cultural background. This form of teaching pushes students culture and personalities to the forefront, therefore preventing alienation in STEM fields. 

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As a current maker and chemistry teacher, my philosophy is provide my students the tools to become makers. This means by first starting off with maker workshops, accessible tools, and accessible mediums students can use to craft their own personal artifacts through proper facilitation. 

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Then by introducing content, I can have students create and correlate their making to chemistry and biology. Although the process is a tedious one, and time consuming, this creates an equitable environment which every student feels welcomed. 

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VYGOTSKY & PIAGET

Jean Piaget and Lev Vygotsky pioneered the study of child development. Both were ahead of their time, but understood that learning was an active process. 

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The constructivist theory, developed by Paiget states that humans actively construct their understanding of the world by using their senses. Therefore, knowledge is learned through experience, instead of direct transmission of information which was a commonly held view of learning at the time . 

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Piagets constructivist model breaks down learning into 4 unique stages briefly summarized below:

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  • Sensorimotor Stage​ (birth to 18-24 months)

    • ​child interacts with sensations to the body​ge

    • stage ends with symbolic thought and object permanence

  • Preoperational Stage (18-24 moths to age 7)

    • Egocentric, difficulty viewing others perspective

    • Imagination is developing, present play

    • child learns ability of conservation of volume/mass â€‹

      • Ex. pouring water in a taller glass doesn't make more water

  • Concrete Operational Stage (age 7 to age 11)

    • Less egocentric​

    • Logical thinking; can work problems in their head

  • Formal OperationalStage (age 11 to Adulthoood)

    • Understanding of abstract concepts & symbols​

    • can form hypothesis from previous knowledge

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Vygotsky developed the sociocultural theory which emphasizes the importance of culture and language in child development. In his theory, he emphasized learning techniques that may work on one student may not be as effective for another due to cultural differences. Therefore, a students background has a large influence on how they learn and think.  In addition, congnition is dependent on communication and language as this is how children organize their thoughts. 

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In addition, in order for a person  to learn a new topic or skill, they must be taught within their Zone of Proximal Development. The zone of proximal development was defined by Vystgosky as follows

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"the distance between the actual developmental level as determined by independent problem solving and the level of potential development as determined through problem solving under adult guidance or incollaboration with more capable peers." (Vygotsky, 1978, pg. 86) (Kazulin et. al, 2003)

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Therefore, teachers act as facilitators by helping a child learn a new skill or concept they would have not have been able to perform on their own. 

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When it comes to teaching, I focus on producing an active learning environment whereby students as often as possible are involve in hand-on activities. In addition, I emphasize class discussion through inquiry, and encourage group tables to encourage group discussion as well. 

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Making for me is essential for this process as it allows me to combine the best of both theories. Students design or make an item or object that represents them and their culture, and use their knowledge to construct knew and creative ideas. The result is an inclusive, culturally relevant classroom. 

THE MAKER MOVEMENT

Making is the process of tinkering, engineering, designing, crafting, and creating an artifact that expresses ones self or tells a story.

 

Although the concept of making his been going on since human existence, from  early cavemen, to Da Vinci, to Elon Musk, the modern day version of the maker movement and maker education began with Seymour Papert, an educator who believed in the constructionist model of teaching (Martinez & Stager, 2013). 

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Papert believed the best way to learn was through active engagement and experiences, which involved creating , tinkering, and making (Martinez & Stager, 2013).

 

Throughout his career he continually pushed schools and developed programs to ensure computers were more than just technological replacements for instruction, but instead medium to explore and create (Martinez & Stager, 2013).

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Together, Cynthia Soloman and Seymour Papert developed the programming  software LOGO, for students to use as a medium to create and make. It would later become the basis of  the block coding language Scratch, and other popular coding languages designed for kids (Martinez & Stager, 2013).

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From reading about the life of Papert, I understand as a teacher, it is my responsibility to facilitate my students to create and make their own cool artifacts. One of the biggest problems of STEM education is there has been a large focus on direct instruction, and a lack of focus on self expression.

 

My goal is to bring students' interests to the forefront, as this weill have them engaged more in the subject. In the words of Dale Carnigie, "the only way on earth to influence other people is to talk about what they want and show them how to get it." 

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Therefore, instead of teaching students to do what I want, my lessons will revolve around what students are curious and interested in. Only then can students be actively engaged in what they want to learn, creating a more inclusive environment.

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STUDENTS BEFORE CIRRICULUM

Without the students there can be no classroom. One of my primary goals as a teacher is to know each student and their interests, and how I can incorporate this into my own curriculum. 

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Student driven classrooms have shown to produce higher test scores, and provide an environement whereby students have a deeper understanding of what they learned. 

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However, in order to get the class to be student driven, students must first feel comfortable expressing their ideas, and be able to communicate effectively.

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This is why starting off the class with "How's your day going" or, "How was your weekend" is essential. You want to show students you care about their interests, and only then will they genuinely care about what you have to say. 

CITATIONS

CITATION 
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Kazulin, Aljaksandr U., Alex Kozulin, &Vladimir S. Ageyev, Boris Gindis, Suzanne M. Miller. Vygostky's Education Theory in Cultural Context. Cambridge University Press. Sep 15, 2003

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U.S Bureau of Labor Statistics. Employment in STEM Occupations. 2019. https://www.bls.gov/emp/tables/stem-employment.htm

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United States Census Bureau. U.S Census Bureau QuickFacts. 2019. https://www.census.gov/quickfacts/fact/table/US/PST045219

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Barton, Angela Calabrese & Edna Tan. STEM-Rich Maker Learning: Designing for Equity with Youth of Color. Teachers College Press. 2018. 

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Funk, Cary & Kim Parker. Woman and Men in STEM often at Odds over Workplace Equity. Pew Research Center. 2018. https://www.pewsocialtrends.org/2018/01/09/diversity-in-the-stem-workforce-varies-widely-across-jobs/

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Aronson, Joshua, Carrie B. Fried & Catherine Good. Reducing the Effects of Stereotype Threat on African American College Studetns by Shaping Theories of Intellegence. Journal of Experimental Social Psychology 38, 113-125. 2002.

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Martinez, Sylvia Libow & Gary Stager. Invent to Learn: Making, Tinkering, and Engineering in the Classroom. Constructing Modern Knowledge Press. Torrance. 2013

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