The Importance Of STEM Education

STEM (science, technology, engineering and mathematic) includes some of the most versatile and important careers in the modern world. Most new developments that are making the world a better place to live are from the influences of STEM fields. As the world becomes more technologically developed there is an increase demand for students well-trained in the STEM related fields. To keep pace with this rapidly expanding area of the economy requires an adequate number of P-12 teachers with the necessary content knowledge and skills to train the next generation. Currently, Texas is facing a critical shortage of teachers with strong backgrounds in STEM. This STEM teacher shortage is impacting student learning and if too many teachers pursue degrees

The new changes No Child Left Behind laws were passed earlier in 2010 stresses the importance of education has to be our main concern to ensure that our children are getting quality education. The legislation is called “Performance Counts,” It reevaluates tenure laws and evaluation. This means that teachers are evaluated and being laid off because of their performance in the classrooms. No matter how long the teacher has been in his/her position that still wouldn’t keep them in their position because of their low performance. Over the next 10 years the focus will be to prepare hundreds of new teachers in STEM science, technology, engineering, and math (Mclatchy, 2010). The program is to encourage students in the STEM field or alternative teacher certification programs to switch their careers if they choose to. For

Teacher education is on the rise with the multitudinous grants exhibited in these releases; with more teachers, there is a greater likelihood that some of these educators will be minorities and women. According to Edward Reeve, an educator who has won three Fulbright awards, Stem Thinking is the solution to the STEM crisis. It interconnects subjects, and it explains how the knowledge the students are gaining will be used in everyday life. Reeve argues this will help the students understanding of concepts, principles, and practices, enabling them to see the “big picture”. STEM Thinking teachers use inquiry based learning strategies, and they should know the popular approaches in these fields, such as the scientific method and the engineering design of STEM. This promotes the hands on learning Obama and numerous scientists support. Students will be motivated to learn the materials in class and apply the knowledge outside of the classroom, better preparing them to for careers and bettering the U.S.’s competitive edge in STEM fields (Reeve). If this occurs, this will lead to even more individuals pursuing STEM. Bamidele states that minorities in STEM must become the norm; seeing minority and women educators will give students the notion that they too can advance in these fields. The media must join the U.S. Department of Education to present these images to the public (Bamidele). This returns us to the point made by Milgram, the return of Rosie the Riveter. Pictured below is an image of Kelly Rowland, posing as Rosie the Riveter; not only does this image promote women in the force, but it also combines this objective with ethnic minorities. This represents the achievability of the goals that are set forth by the U.S.

Evaluation is vital to education, whether it is a new reform or a back to basics approach. STEM education remains open to interpretation. Drew states that the quality and efficacy of programs across the United States require quantitative and qualitative evaluations (2011). These studies should include the long-term benefits of grant funding and best practices for sustaining effective STEM programs when the grants and funds from corporate sponsors terminate (Johnson, 2014). Ultimately, the evaluation and research requires dissemination to schools across the country in order to affect the necessary reforms.

According to Joey Rider-Bertrand education is seeing a strange side due to technology and engineering. Teachers are struggling to keep up to date on all the new activities involving technology and engineering. Rider-Bertrand states that class sizes have increase while funding has decreased. All students have expectations to achieve proficiency on state tests and meet graduation requirements. STEM stands for Science, Technology, Engineering, and Mathematics. According to Rider-Bertrand, education is more focused on technology and engineering in the STEM program.

My area of interest deals with teacher efficacy in STEM education. The article I have chosen discusses issues related to teacher efficacy, standardizing STEM education, using educational theories, pedagogical approaches, increasing teacher capacity and supports provided to teachers in STEM education. This topic is relevant because it supports the idea of building the efficacy of educators in STEM that is needed to prepare our students for the 21st century global workforce.

The reauthorization of ESEA, Every Student Succeeds Act (ESSA) renewed the nation’s commitment to equal opportunity for all students. The revision in ESSA included STEM education and professional development, but not to the extent originally proposed in the ECAA. The ESSA required the integration of engineering design skills and practices into the states’ science assessments (§1201). States were expected to carry out programs that provided alternative routes for State certification, “especially for teachers of… science, technology, engineering, mathematics” (§2101). The ESSA made states and local agencies responsible for developing and providing professional development for teachers in order to promote high-quality instruction in science, technology, engineering, mathematics, and computer science (§2101, §2103). The ESSA used the acronym STEM in two separate sections of the policy. A “STEM Master Teacher” referred to “a State-led effort to elevate the status of the science, technology, engineering, and mathematics teaching profession” (§2245). The second usage of the acronym described

In America, the state of education has always been a pressing concern, perhaps now more than ever. Improving education has been proven to strengthen the nation time and time again, specifically with regard to science, mathematics and technology. Ten years after the start of the Cold War on October 4, 1957, the Soviet Union launched the first ever man-made satellite, Sputnik-1. This action by the Soviets caused immediate concern for the educational system in the United States because this launch proved that the Soviet Union had superior technological capabilities (SOURCE 1). America’s first action was to improve education, and this was done through the National Defense Education Act, which provided large amounts of funding to American schools, and supported American students who showed particular skill in math, sciences or foreign languages (SOURCE 2). During the Cold War, supporting education was used to support the nation as a whole. Today the United States faces a similar problem, mainly due to the declining focus on science and math in schools. Students have been losing interest in these subjects, and as a result, America has been falling behind in the global education ranks. This decline has been hurting America’s ability to continue to be a successful global competitor. Now the government is working to reverse this trend by supporting STEM programs. STEM is an acronym for the academics concentrations of Science, Technology, Engineering, and Mathematics. The purpose of

In a speech in February 2013 President Barak Obama said, “One of the things that I really strongly believe in is that we need to have more girls interested in math, science, and engineering. We’ve got half the population that is way underrepresented in those fields and that means that we’ve got a whole bunch of talent…not being encouraged the way they need to.” It been three years since President Obama has made that statement and the underrepresentation of women in science, technology, engineering and math as known as STEM majors is still a big problem today. The STEM workforce is crucial to Americas global competitiveness and groundbreaking capability. The people who work in the STEM field make up nearly half of the United

STEM integration within America’s schools is a necessary requirement to adequately prepare students to compete in our future society. Although growth in STEM related jobs is quite apparent, knowledge of STEM capacities is necessary to function in the 21st century.

Typically when you ask very young children what they want to be when they grow up, you usually get the same five answers; like pop star, scientist, vet, doctor, or astronaut. These are popular answers because it’s what young kids believe is success, but what children aren’t taught at a young age is the struggles and difficulty of getting to that point of success. Another thing is four out five of the most popular careers children tend to choose, are jobs in STEM. Most children change their minds as they get older and discover their hobbies and interests, especially when they find out how difficult and challenging some of the original jobs that they chose may be. Unlike some teenagers, I’m still that five year old girl who answered doctor when

The authors’ collaborative research began by exploring the future of education and the teaching profession. Through their research, they swiftly concluded a vast majority of people shared the notion that the most important factor that effects student learning is the quality of the teacher. Andy Hargreaves and Michael Fullan continued to take a closer look at how one can maximize the cumulative effect of many quality teachers over time, and the favorable lasting impact this would have on the education of students for many years to come. The ultimate goal of Professional Capital is to increase human capital or the individual teacher’s talents, skills, and capabilities. However, this human capital needs to be distributed and

Stewart (2014) also proposes a shift from professional development to professional learning, an ongoing job-embedded, data-driven concept that creates a learning culture; accordingly, ongoing professional learning is a necessary strategy with science knowledge changing at a faster rate than textbooks are being replaced. While options such as job-embedded professional development is a possible solution to time constraints, additional teacher requirements have the potential to become detrimental, limiting time to plan rigorous, engaging lessons and provide timely student feedback. It is also possible that data derived in STEM classrooms is skewed due to lack of student effort and extraneous variables such as reading level, prerequisite knowledge, and poor class attendance, limiting the overall affect of data-driven activities.

A STEM education is a necessity in the United States because the country is lacking knowledgeable people in such fields. However, one is better equipped for multiple job and career positions with the addition of a liberal arts education. It is nearly impossible to transition to different careers with only vocational training. In 2003, the Organization for Economic Cooperation and Development studied math and science literacy among fifteen year olds. The United States was ranked number twenty-four in math literacy (Drew 27). They are behind countries such as Finland, Slovak Republic, and Hungary. Likewise, the United States was ranked number nineteen in science literacy (Drew 27). It is obvious that the country is behind. STEM education needs to be reformed at the secondary and post-secondary levels of schooling. Katrina Trinko, a member of USA TODAY’s Board of Contributors, agrees that more emphasis should be placed on STEM education; however, this emphasis should not be at the sacrifice of a good liberal arts education. She writes, “Even technology wizards can become more innovative with a solid background in liberal arts” (Trinko 6). A liberal arts education is beneficial to people in all career fields.

Everyone wants what is best for their children, right? If that is true, then schools need to start preparing their students for the challenges they will meet in college and the skills to overcome them. This is best done through the presence of Science, Technology, Engineering, and Math (STEM) in middle and high schools. Through Wisconsin schools furthering their focus on STEM with extracurriculars, students will gain vital skills that are necessary for human progression, problem-solving and time management skills that can be used in real life, and the students learn how they can apply what is being taught in the classroom to real obstacles and challenges.