Educators of Technical, Technology and STEM education continue with us, to advocate for hands-on skilled training. Thought leaders from around the country have discussed ways to accomplish this through education reform. C. M. Rubin published a discussion with Charles Fadel.
Contemporary education is failing our students because we are stuck in a curriculum designed for a different century, We need to re-examine college entrance requirements (and their tests). They hold change hostage to antiquated and incomplete requirements. Massive adaptation must be demanded by parents and educators alike. Without these changes, we will be unable to adapt curricula to reflect modern needs. It starts with creating a framework for WHAT we need to teach, which must be comprehensive yet concise and actionable
CHALLENGE: Small, nontraditional learning spaces lacking the right tools for storage, organization, and efficient workflow
SOLUTION: Create a space-saving, well-organized environment for hands-on and classroom learning experiences that mirror real-world shop environments
BENEFITS: Enhanced classroom learning opportunities; significant cost savings from not having to replace lost tools; tools and parts are centralized, easily located, inventoried, and secure; and increased shop/student productivity
PRODUCTS USED: Workstations, Chairs, High-Density Storage Drawer Cabinets
Used in automotive shops around the world, Stanley Vidmar storage and workspace solutions are the perfect way for the educators of tomorrow’s automotive technicians and machinists to incorporate professional-grade products into the classroom experience. At Carbon Career & Technical Institute (CCTI), a dedicated team of instructors equips high school students with the skills and knowledge needed to enter the workforce or enroll in a post-secondary educational program. Using real-world examples to teach essential concepts, their staff applies advanced technology to career and technical tasks in areas including welding, precision machine technology, HVAC, and automotive repair.
Technology in Action
All of us suffer from some sort of phobia, be it high places, closed areas, water, etc., and for most of these there is a cure. The phobia affecting many people over the past 40 to 50 years is Technology Phobia, or the uncertainty of how technology would affect their lives and their work.
Let us be honest with ourselves; all of us suffer from technology phobia to some degree or another.
a Winner says, “Let’s find out”
a loser says, “nobody knows”
when a Winner makes a mistake he says,
“I was wrong”
when a loser makes a mistake he says,
“it wasn't my fault”
a Winner goes through a problem.
a loser goes around it, and never gets past it.
a Winner makes commitments.
a loser makes promises.
a Winner says “ I’m good,
but not as good as I ought to be”
a loser says
“I'm not as bad as a lot of other people”
a Winner tries to learn from those who are superior.
a loser tries to tear down those who are superior.
a Winner says “There ought to be a better way”
a loser says “That’s the way its always been done here”
Article for Review
Visualization and model building are skills that technology instructors have been providing their students for some time. Using visualization and the ability to replicate a model are skills that can be enhanced when students are introduced to communication simulation and the process of developing simulated representations of reality. In this article, the authors explain how to develop and design a communication simulation using a physical security analysis of a computer laboratory as the theme of the activity. Communication simulation from the authors’ viewpoint is the use of technology and visualization to allow the student to communicate by using a model
Computer developed simulations are new teaching tools that faculty are starting to use in their classrooms. In this paper, the authors look at one type of simulation, communication, which can be implemented into the classroom using a physical security analysis from a technology/visualization perspective. However, to disseminate this article to a broader audience and to be consistent with the understanding of the terminology used throughout the narrative several terms will be defined using Wikipedia as the resource. As Clark Aldrich states (2009, p. xxxii), “The lack of common terms is a huge problem, and it has substantially hindered the development of the simulation space. Sponsors, developers, and students have not been able to communicate intelligently.”
Follow The Money
The U.S. Department of Education announced the start of the $134 million 2014 Investing in Innovation (i3) grant competition on March 14th, 2014 with the release of the program's invitation for pre-applications for the i3 "Development" grants (up to $3,000,000 each). In its fifth round of competition, the i3 program continues to develop and expand practices that accelerate student achievement and prepare every student to succeed in college and in their careers. The i3 program includes three grant categories: Development, Validation and Scale-up. The Department plans to announce applications for the Validation and Scale-up categories this spring.
80% of manufacturers report a shortage of qualified applicants for skilled production positions, and the shortage could cost U.S. manufacturers 11% of their annual earnings. Manufacturing executives reported an average of 94 days to recruit engineering and research employees and 70 days to recruit skilled production workers. The skills gap is driving up what are already above average wages and benefits in U.S. manufacturing. Studies show an increasing skills gap with as many as two million jobs going unfilled in the manufacturing industry alone in the next decade.
The Association for Advancing Automation (http://www.a3automate.org) (A3) explores the impact of automation on the ever-evolving job market and the growing shortage of skilled employees with experience and training in advanced technologies. A3 examines the types of jobs that are going unfilled and reviews workforce development initiatives, including education, apprenticeships, and on-the-job training that will fill labor shortages and support ongoing economic growth and productivity. http://www.a3automate.org/work-in-the-automation-age-white-paper/
The Art of the Future
"Why should policy makers, educators, school board members and students care about the arts and science, technology, engineering and mathematics (STEM)?" The Art of the Future is the book written by Jim Brazell in response to this question asked of him by the National School Boards Association (NSBA). Debra Amidon, the creator of the concept of knowledge innovation says in her foreword to the book: “The Art of the Future
There is tremendous buzz lately about setting up a makerspace. Thankfully, educators, policy makers (for some reason they are not always one and the same?) administrators and the education community in general are realizing that in order to really cultivate metacognition and real-world skills, we need hands-on, project-based learning. Object-based learning is making a comeback, and teachers are connecting lessons back to the industry, creating a more vocational education. A big part of this movement towards active learning and STEM is creating a makerspace in the classroom.
Many Minnesota employers say they can’t find skilled workers with the right career training. Meanwhile, high schools are cutting career and technical education courses because they can’t find qualified teachers. “The jobs are there, and we’re not preparing our kids well enough to get into those jobs because the system has not allowed us to,” said Stephen Jones, the superintendent of schools in Little Falls, Minnesota. His district hasn’t had to cancel any courses for lack of instructors, but he says smaller districts in the state have.
Two-thirds of states are currently reporting a shortage of CTE teachers in at least one specialty, according to a Stateline analysis of federal data. Many states, such as Minnesota and South Dakota, have had a shortage of CTE teachers for a decade. Some states, such as Maine, Maryland and New York, have had a shortage for almost 20 years.
As juniors in high school, we are concerned about our future. Since we have started high school, we have taken on challenging classes in an effort to prepare ourselves for higher education. We all started taking high school level classes in middle school in preparation to take college classes that we are currently enrolled in as high school students.
Our high school requires more STEM (Science, Technology, Engineering, and Mathematics) courses to graduate than what Idaho currently requires for graduation. We have spent hours preparing for and taking standardized tests including ISATs, civics exam, biology EOC (End of Course) assessment, and college entrance exams. In addition to all of our academic endeavors, we have all participated in community service activities and extracurriculars. Our class dreams big, and we are not afraid to put forth the extra effort to achieve those dreams.
“Confronting the CTE Stigma” is a new report developed from statewide surveys conducted by the Research and Curriculum Unit at Mississippi State. Julie Jordan, director of the RCU, said studies indicate that Mississippi students in CTE programs graduate from high school at higher rates than their non-CTE peers. Additionally, CTE prepares students for middle skill-level jobs, “an employment niche where growth is projected to outpace both high- and low-skill occupations.”
In the first phase of the RCU’s study, slightly more than 400 Mississippi adults were interviewed about their attitudes toward CTE. Of that group:
—45 percent were unable to name a single CTE program offered by local schools;
—44 percent said students who were disadvantaged in some way—not college-bound, residing in poverty or having poor grades—would benefit most from CTE participation; and
—48 percent agreed CTE could benefit the college-bound.
Requiring that high school students spend more hours in classrooms to meet “academic standards” sacrifices, and has clearly impacted, the dire need to give students more opportunities to learn a trade. We’re talking producing more carpenters, welders, plumbers, electricians, masons, mechanics, woodworkers, and other skilled craftsmen.
And while we’re encouraged by state and federal legislation to enhance career and technical education — formerly known as vocational-technical education, or vo-tech — it’s also clear that nothing will change unless the powers-that-be at the state and U.S. Departments of Education accede to the change and stop forcing local school districts to adhere to their “academics first” policies or else.
Made available through Siemens Cooperates with Education, the effort is designed to give high school and technical school graduates a basic-to-advanced machine tool knowledge that will benefit them in their future careers as CNC (Computer Numerical Control) machinists. L.E.A.P. starts with Sinutrain, a PC-based, control-identical training system. This software turns any PC screen into an exact representation of the Sinumerik Operate graphical user interface. The numeric kernel (NC) that drives Sinutrain also powers the Sinumerik 828D and 840D sl controls. Comprehensive knowledge doesn’t require investing in a machine, as all courses can be taught on a PC.
Samsung's "SOLVE FOR TOMORROW" STEM Education Contest Awards $40,000 to Fifteen Finalists. Grand Prize Winners to Receive $120,000
When their teacher asked them to take a hard look at issues affecting people in their community, one group of students in Missouri noticed that some of their peers with disabilities had trouble staying upright in their wheelchairs. And so, the students got to work with compressed cardboard, cutting and shaping various components to find which ones would create classroom furniture that would make their friends most comfortable. This is the essence of Samsung’s Solve for Tomorrow contest, which challenges students to tap into their STEM (Science, Technology, Engineering and Math) skills to create innovative solutions to problems they observe in their communities. The students in Missouri were recently named one of the 15 national finalists by Samsung Electronics America (SEA).
math, programming, STEM, robotics
Provided by TryEngineering - http://www.tryengineering.org/lesson_detail.php?lesson=120
The activity involves the design of an algorithm for solving a 4x4 simple maze. The problem statement is just to design an algorithm and implement them using flow chart. If the background of students permits the use of basic programming, implementing the algorithm in a preferred programming language is recommended. The students shall be given card or similar material to design a three dimensional simple 4x4 maze. The source and destination will be as marked in the figure (denoted by S and D respectively). They will be asked to find the route manually first. It will be followed by a discussion on what logic they have used for finding the route. They can list the conclusions derived from the discussion. Based on the conclusions, the students are asked to create an algorithm, in simple terms a ‘step by step procedure’, to solve the maze.
Advanced Level: If the algorithm is verified for the given maze, the students can go forward with the implementation of the same on a preferred programming language. This will make use of basic concepts of two dimensional arrays, loops, and conditional statements. Moreover, they will be able to enjoy the real fun in solving the maze, with their basic programming skill.
Lesson focuses on algorithmic thinking and programming. Make the students aware of the beauty of simple algorithms and their implementation in real fun games
- Learn how to systematically analyze a problem in such a way that an algorithm can be derived to solve it
- Learn about the usage of such algorithms to solve real problems.
- Learn about applications of such algorithms to get started with the world of robotics algorithms, artificial intelligence, and so on.
The International Technology and Engineering Educators Association (ITEEA) is the professional organization for technology, innovation, design, and engineering educators. Our mission is to promote technological literacy for all by supporting the teaching of technology and engineering and promoting the professionalism of th