Sunday, September 25, 2016

Cached In: The Seven (Not-Deadly) Domains

*****Warning: This edition of the Cached In is a long, dense post that can be classified as a “mile wide, but an inch deep” due to the amount of topics that I cover throughout the post. As you read through this post, I encourage you to visit any of the references that are listed throughout this post so that you can get a better idea of what is specifically being discussed throughout. However, whenever possible, I will summarize pertinent information needed in order to make connections to my own thoughts regarding the text contained in this post.*****

As an educator, regardless of grade level taught and your associated teaching institution, the role of technology and its influence in the classroom is one that is continuously changing; there is so much change that it can often be difficult for all of us to keep up. However, it is still important to acknowledge the fact that whereas technology used to supplement quality education, technology is now becoming a prerequisite for quality education. With technology becoming less and less optional as each new cohort of learners enter our schools, now would be a convenient time to discuss the ideas of Mishra and Koehler (2006) in which they integrate technological concepts into what teachers must be doing in order to provide the best instruction that is possible. Mishra and Koehler, in all actuality, have developed an educational conceptual framework that depends on the notion that technology is a critical element in the education of America’s youth.

According to the authors under consideration, there exists seven domains associated with teaching that are required for a teacher to deliver a superb lesson. These seven ideas are arranged in an educational conceptual framework that can be used to help guide the decision making process within a classroom, a school, and even within a district. While I will briefly summarize the seven domains below, I encourage you to read the article listed below to get a complete picture of the intentions of Mishra and Koehler whenever they implicitly propose the need for technology education to command a larger role in our nation’s schools. Without spending thousands of words dissecting their article and the minutiae associated with it, I would like to demonstrate how simple it can be to implement the seven domains in order to craft quality lessons that agree with the conceptual framework under consideration. As a way to demonstrate how each of the domains can exist in a typical classroom, I would like to provide examples of how I have used of them in order to provide my Physics students with the tools necessary to reach a level of distinguished success.



Content Knowledge:Content knowledge (CK) is knowledge about the actual subject matter that is to be learned or taught.” (Mishra & Koehler, 2006, pg. 10)

As a Physics teacher, the most traditional form of knowledge that I need to retain is the content pertaining to my academic discipline. I need to be able to quickly recall the facts, concepts, and interconnected nature of linear and circular kinematics (how masses move), linear and circular Dynamics (why masses move), Energy and Momentum, Waves (the transfer of Energy), Electrostatics, Electrical Circuits, Magnetism, Thermodynamics, Fluid Physics, Optics (Application of Waves), Gravitation, Modern Physics (ideas associated with the wave-particle duality theory), along with the famous historical and practical experiments that can be used to convey the content associated with each of the topics. As a Physics teacher, my principals and superintendents would expect me be an expert on all of the topics that have been listed above all else; I was hired as a Physics teacher, so I better KNOW Physics.

As educators, this is the domain in which we are usually most comfortable (except the unfortunate few who are placed teaching courses that they do not want to teach). Therefore, when all else fails, we sometimes feel comfortable simply giving lectures regarding the content that fills our head. While lecture is not necessarily the most effective form of instruction, there is little that we can do as educators if we do not even know what we are expected to teach.

Since this is a technological post, I do not want to spend too much time on this particular topic.

Pedagogical Knowledge: “Pedagogical knowledge (PK) is deep knowledge about the processes and practices or methods of teaching and learning and how it encompasses, among other things, overall educational purposes, values, and aims.” (Mishra & Koehler, 2006, pg. 10)

While many teachers are familiar with content knowledge, many of the same teachers develop some form of pedagogical content knowledge. Since we have all went through some form of teacher preparation program in order to teach in this country, it is somewhat expected that we all have some experience with the common theories and educational psychological concepts associated with how students learn, how to present content, and what we can do in the classroom in order to achieve effective instruction.

As a Physics teacher, I need to be familiar with the ideas associated with Maslow’s Hierarchy of Needs, Bloom’s Taxonomy of questioning and learning, and theoretical theories related to Piaget, Vygotsky, and Bronfenbrenner. By keeping these theories in mind, I can craft lessons that target a variety of different learners who I am aware are at different learning trajectories as a result of the development of their own brain.

Since this is a technological post, I do not want to spend too much time on this particular topic.

Pedagogical Content Knowledge: “The idea of pedagogical content knowledge is consistent with, and similar to, Shulman’s idea of knowledge of pedagogy that is applicable to the teaching of specific content.” (Mishra & Koehler, 2006, pg. 11)

While knowing the theories of how students learn is nice and fantastic, they are not useful unless they can be directly applied to your own specific classroom and lesson topics. Mastering the art of this specific domain is what begins to separate the decent teachers from the fantastic teachers; being aware of the specific activities and teaching strategies that can be best used to deliver instruction within your discipline is a skill that can often come with experience (as it did with me).

As a Physics teacher, I had to develop the analogies and help connect Physics to other areas of students’ lives so that the content became memorable, I had to write lessons in a way that allowed for appropriate scaffolding through difficult material, and I had to use teaching strategies, through trial and error, that were determined to be the most effective means to help students grapple with the difficult content associated with Physics.

Since this is a technological post, I do not want to spend too much time on this particular topic.

Technology Knowledge: “Technology knowledge (TK) is knowledge about standard technologies, such as books, chalk and blackboard, and more advanced technologies, such as the Internet and digital video.” (Mishra & Koehler, 2006, pg. 11)

And now…we come to the meat of this post (it took a while. I know. I know.)

In order to deliver quality instruction, as educators, we need to be aware of the technology available to us so that can then begin to use it within our own lessons to promote student success. While technology is an ill-defined word in that the majority of individuals I have come across seem to think it only pertains to digital devices such as phones and computers, we, as teachers, still need to familiar with how to use dry erase boards, computers, the internet, and the programs that we use with our computers.

In my current classroom, I have immediate access to a computer. While the following is clearly not the case in many schools around the nation, it is important that I know how to use a keyboard, a mouse, and know how to connect all of the devices of a computer into the main unit in order to see the graphical user interface. As an educator who is responsible for his own computer, I need to be aware of how to install and uninstall programs, know the difference between a good and bad program, and know what to do whenever I am faced with an issue pertaining to the technology under consideration. If I connect any device to my computer, such as a printer or a scanner, I need to be aware of how to use those tools in order to eventually aid my instruction. Troubleshooting and diagnosing technological issues, while are usually expected to be handled by a school’s media specialist, need to be skills that all teachers develop so that teachers do not have to resort to low-quality backup plans whenever their intended use of technology was foiled.

Technological Content Knowledge: “Technological content knowledge (TCK) is knowledge about the manner in which technology and content are reciprocally related.” (Mishra & Koehler, 2006, pg. 12)

Ahhh, yessssssssssss. As soon as I master the technology at my disposal, I need to find ways to use that technological to specifically connect to the content in which I am teaching.

If I am going to teach a lesson about the Kinematics of objects, I need to be aware of how to use data collection devices so that my students will be able to verify and make new discoveries with the aid of tools that scientists use on a daily basis. As a Physics teacher, it is important that I know how to use data collection software, particular scientific probes, and how computer program packages such as Microsoft Office can be used to create graphs, data tables, and communicate collected data in ways that are easy for others to understand. Since calculations are to be completed using a calculator, it is important that I know how the Texas Instrument line of calculators (and rival companies) can be used to aid in the task of crunching numbers.

Technological Pedagogical Knowledge: “Technological pedagogical knowledge (TPK) is knowledge of the existence, components, and capabilities of various technologies as they are used in teaching and learning settings, and conversely, knowing how teaching might change as the result of using particular technologies.” (Mishra & Koehler, 2006, pg. 12)

I want to leave this domain in the context of the quote above since it summarizes what is needed in order to successfully master this domain. I do this because I want to move on to the final, and most critical of the domains.

Technological Pedagogical Content Knowledge: “This knowledge is different from knowledge of a 1028 Teachers College Record disciplinary or technology expert and also from the general pedagogical knowledge shared by teachers across disciplines.” (Mishra & Koehler, 2006, pg. 12-13)

Finally, we have reached the domain in which I have been trying to build up to.

With the knowledge associated with how to use technology and the knowledge and skills associated with how the technology can be used to teach in a specific discipline, we can now reference to knowing which forms of technology can be most effectively used to teach specific concepts and/or content.

While it is critical that I understand the technological content associated with Physics, I also need to be aware of which forms of technology are most conducive for student learning. For example, in my experience, I have found that students have an easier time creating digital graphs using Vernier Logger Pro Software rather than using Excel Spreadsheets. However, students have an easier time learning how to create data tables within Excel rather than Microsoft Word of Vernier Logger Pro. Knowing about the intricacies of technology is important, but it is even more important to know which forms of technology are most accessible and easiest to use for students.

When teaching Physics, I always make sure to use a classroom webpage in which students can download related PowerPoint Presentations, Articles, Assignments, and programs so that they can continue to learn content from the devices that they most often use in their own lives; I always make sure to post programs files that can be opened by Android, Apple, and Windows devices since most students use one of those operating systems in order to access anything related to technology.

For those of you keeping up with my frequent blog posts, I would like to turn your attention back to the PHET simulations that have already been discussed on this blog; a teacher with a proficient degree of technological pedagogical content knowledge would be able to determine which simulations work best for her/his class, how to present the simulations to the students, how know how the students should use the simulations in order to learn the content and skills that are expected to be mastered.

When considering this final domain, one must know how to use technology, how it is used within her/his discipline, what forms of technology are most accessible to the student population, and then how to use the technology in order to promote the learning that is desired.

And so, I need to wrap this up as the cache is becoming quite full…

Undoubtedly, being mindful of each of the above domains can be challenging for a new teacher or an experienced teacher who has never looked at her/his own methodology of teaching through the conceptual framework that has been outlined throughout this blog post. However, many of you who read my blog are already using each of the domains that have been described even if you have not been using the terminology or have explicitly considered the educational framework. It is my hope, however, that you remain mindful of the work of Mishra and Koehler, and that you consider new and innovative ways to expose your students to each of the seven domains throughout as many lessons as possible. As technology becomes less and less optional, we need to be forever more cognizant of what we can do to make technology an enhancement of learning rather than an inhibitor of knowledge.

For those of you who are interested in the information contained in this post, I would like to extend an invitation to visit the following webpage.


The above link is managed by Matthew Koehler (one of the authors of the article referenced throughout this post) that provides a more user-friendly introduction to his conceptual framework as when compared to his discussion found in the article referenced throughout this post. He gives a fantastic run-down of his conceptual framework, and is now using his webpage to promote the implementation of the framework in your own classroom. I encourage you to visit his website, create an account, and begin to interact with Matthew and other users who want to find out more regarding the seven domains associated with the educational framework.

Alright! I am now going to…cache out!

Works Cited


Mishra, P., & Koehler, M. J. (2006). Technological pedagogical content knowledge: A framework for teacher knowledge. Teachers college record,108(6), 1017.

Wednesday, September 21, 2016

A Cache Withdrawal: A Vivid Learning Experience




"A Cache Withdrawal" posts will consist of vivid memories in my educational experiences that have helped shaped who I am as an educator. Consider post an introspective of my philosophical beliefs regarding education.
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If you are an educator who travels the United States of America to teaching conferences that are held throughout an academic school year, one of the issues that plague our schools, regardless of location and geographical region in the country, is that teachers have a difficult time bridging the gap between what students do in school and what students will do once they obtain a job.

As it stands, the two seemingly different domains can be thought of as typically existing in the following way.



What students do in school is separate from what students will do whenever they seek obtain their job. Note that both domains are not connected to each other, and also notice that each domain contains a different shape. The structure of the school environment and the structure of the environment at a specific job are entirely different, and the boundaries of what is allowed and expected are usually different as well. Consider the contrasting colors represented by the school domain and the job domain; these different colors represent what students will typically do in both domains – purple represents acquiring knowledge for the sake of knowledge (with the hopes of applying what is learned once a student is hired) in a school environment while the green represents the fact that students will spend more time applying knowledge and using skills in order to complete a given task. With different structures, different boundaries, different expectations, and different skills that are emphasized in both domains, it is not difficult to conceive that many students have a significant amount of trouble as they transition from school into the job market.

As an educator who is currently working on doctoral coursework in STEM Education, I am highly interested in the blending of the two domains in order to provide a better transition for students as they enter adult-hood; I also want to see a blending of the two domains in order to show students and workers that a person’s education and an individual’s job are inherently linked in such a fashion that “education” can be acquired by “working” while “working” is a result of “education”. In a perfect world, the two domains would more closely resemble the following illustration to your left.



A student’s work completed at school and work completed for a specific job should contain the same expectations, the same boundaries, and should both mimic each other from a practical standpoint. Let’s meld a student’s experiences at school with a student’s experiences at a job so that the two almost become seamless.

One such way to help bring school experiences and workforce experiences closer together is by implementing a cognitive apprenticeship in your own classroom if given the opportunity. While one can study the research associated with a cognitive apprenticeship, it is pertinent to know that, a “Cognitive apprenticeship is a theory of the process where a master of a skill teaches [teacher] that skill to an apprentice [student].” (Wikipedia, 2016 – See Link Below). Rather than dissecting the theory of a cognitive apprenticeship, I do want to share an experience that is still the most meaningful learning activity that I have ever had a chance to participate.

Imagine, if you will, the spring semester of my senior year of high school. The year was 2007, and I was enjoying my final days of my glorious high school years. I was enrolled in a Chemistry 2 course, which was a continuation of the school’s first Chemistry course since our school did not offer Advanced Placement Chemistry at the time. Two weeks before the end of the semester, my teacher assigned the course’s final project.

The final project was assigned as follows:
A school employee has been murdered (a member of the science department)
The murder scene consists of the dead body (with a bruise on the back of his head), a rope tied on one end, broken class, the top rim of a fish tank, one dead fish, spilled liquid (clear), spilled liquid (brown), and another mysterious liquid that appeared to have a pinkish color.
A list of eye witness accounts of where five of the department’s science teachers were at the time of the murder along with their personal statements regarding where they were and what they were doing
It was our job to determine the contents of all three liquids, identify the three liquids, and connect the three liquids to the murder of the dead individual.
- After determining the contents of the liquids and the identification of the liquids, it was the students’ jobs to piece together how the three liquids were related, and how the three liquids contributed to the murder of the individual.

Without much guidance, we were instructed that we had two weeks in the school’s chemistry laboratory to run whatever tests that we desired. We were allowed to use chemistry equipment found in the laboratory which also included technological probes that could be used to make accurate scientific measurements.

As we me made measurements in the laboratory in order to ultimately determine the murderer, all students were required to keep a notebook of the following components:
-       Notebook Cover Page (Name, Date, Class, Class Period, and Title of the Project)
-       Driving Question Page (What we were required to investigate)
-       Evidence Page (An annotated list of all forms of evidence available to the students)
-       Data Pages (An organized, sequenced collection of pages of collected data, calculations, data tables, and graphs)
-       A summary of findings
-       An account of how the murder took place by connecting the three mystery liquids to the broken glass, the rope, the rim of a fish tank, the dead fish, and the bump on the individual’s head.
-       An accompanying PowerPoint that summarizes the content of the notebook so that it can be presented to the rest of the students in the class

Over the next two weeks, I ran the following tests on each of the three liquids
Density (as a result of measuring the volume and mass of a given liquid) calculations were conducted for each of the three liquids
o   Each calculation was meticulously shown to be reported later
Freezing Point Test – To see at what temperature the liquids froze
Computerized Graphs for each liquid were created to show how the liquid’s temperature changed over time
Boiling Point Test – To see at what temperature the liquid began to boil and to see if any residue was left as a result of boiling away the liquid
o   This also showed if more than one liquid substance was contained within the “sample liquids”
Computerized Graphs for each liquid were created to show how the liquid’s temperature changed over time
Particle Separation Test – To see if the liquids contained any particulate matter
o   Data tables were constructed to qualitatively show if any large particulate matter was left behind for each liquid
o   If particulate matter was left behind, measurements in terms of mass and size were conducted and also placed in the data tables
Centrifugal Liquid Test – To see if any of the liquids contained more than one liquid that could be separated in much the same manner that a blood centrifuge can separate blood components.
o   Photographs were taken of each centrifugal test and liquids identified by color (after separation) were recorded based on the density of the liquids

Since a test is only conclusive with multiple trials, each test was conducted at least three times to ensure that data acquisition was confidently collected.

Whenever data was collected, tables were created, and graphs were constructed, all of results were required to be organized in a notebook in a logical, sequential manner. It was also required that anything placed in the notebook (written statements, calculations, data tables, and graphs) were required to be completed on a computer in order for the notebook to remain professional.

At the end of the two weeks, complete analysis of the three liquids were conducted, the three liquids were connected (salt water, blood, and soap containing soil) to the crime scene in order to form a written account of how the murder took place.

At the end of the activity I found that the murdered individual was carrying his salt water fish tank on the second floor of the building, accidentally slipped on a rope that was laying on the floor (which was used earlier in the day by the JROTC for their daily training), and fell down to the first story of the front foyer. The individual landed on his back, but his head bumped the floor during impact, the fish tank fell to the ground next to his body, and salt water (with the salt water fish) was spilled all over the floor. The dead individual started bleeding, but the blood had sat long enough to develop a brownish/rust-like color. The football coach (who happened to be another science teacher) witnessed the accidence, used soap to attempt to clean up the scene, and accidentally got dirt from his football field mixed with the soap. For fear of being accused of killing the other science member, the football coach left the scene to return to the football field house.

While the minutiae of the activity is not necessarily important, it is evident that I was given an opportunity to complete an investigation as if I worked for a Crime Scene Unit, and I was able to apply my Chemistry knowledge with the help of teacher who served in the capacity as a mentor throughout the project. In essence, I was a part of a cognitive apprenticeship that more closely mimicked the real world when compared to what students typically do in a traditional Chemistry class. It is this cognitive apprenticeship that has allowed me to keep vivid memories of the experience even though it took place almost ten years ago.

My teacher successfully blended the domains of school and a job into a singular domain in which success relied on both so that I could leave long-term memories of my experiences in my final year of high school.

The question is…

How can we do this in more academic disciplines in such a way that these experiences are the norm rather than unique projects?

And with that, I am caching out!

Tuesday, September 20, 2016

A Website to Cache: PHET

Greetings, Ladies and Gentlemen

As we continue through this technological blog, there will be instances in which I will recommend a website for educators to use to help improve their ability to teach. These websites that I recommend are websites that I encourage you to cache for future retrieval. With that said, let's take a look at our first website to cache!

I wanted to contribute a short post regarding an area of technology education that I feel has been extremely useful as I have taught Physics at all academic levels for students in 9th Grade (Integrated Physics) and Juniors and Seniors who enroll in Physics and Advanced Placement Physics. As a Physics educator, I understand the need to allow students to “see the science taking place” even if a typical science classroom is not equipped in the same manner as a University Physics laboratory. In the event that a science classroom is lacking in supplies and materials, a helpful alternative is to include Physics simulations into a course’s curriculum. Assuming that a science educator is fortunate enough to be placed in a situation in which she/he has access to a wide variety of scientific tools and instruments, using simulations as a supplement to experimental investigations and lectures can be a helpful way to ensure that students see and learn what is intended to be seen and learned.

One of the best science simulation websites, one that is now rapidly growing in popularity, is The University of Colorado Boulder’s PHET Simulation webpage.


According to the official website,

“PHET provides fun, free, interactive, research-based science and mathematics simulations. We extensively test and evaluate each simulation to ensure educational effectiveness. These tests include student interviews and observation of simulation use in classrooms. The simulations are written in Java, Flash or HTML5, and can be run online or downloaded to your computer. All simulations are open source (see our source code). Multiple sponsors support the PHET project, enabling these resources to be free to all students and teachers.” – Official PHET Webpage (2016)

The following video shows how PHET simulations are used in the classroom from the perspective of the students and the teachers. It is also a fantastic introduction to PHET simulations in the even that a science educator has no experience working with simulations in her/his own classroom.


What makes PHET a fantastic resource for your classroom is the fact that it contains virtual simulations from a variety of different topics in science and mathematics. The following available simulations are a sampling of what the entire website has to offer.

***Physics***
- Decaying of Atoms                                  
- Individual Forces and how they create Net Forces and Accelerations
- Position, Velocity, Acceleration graphs as objects move in time
- Circuit Creation
- How Colors are perceived by the Eye
- The energies present as a person travels on a skateboard
- How standing waves are produced on a string

***Chemistry***
- The Bohr Atom
- Acid/Base Solutions
- Concentration of Liquids
- Effusion/Diffusion
- Molarity
- pH Scale
- Different Types of Reactions

***Biology***
- Natural Selection
- Population Growth
- Eating and Exercising
- Sugars and Salt
- DNA

**Mathematics***
- Building Fractions
- Fourier Analysis
- Calculus Grapher
- Estimation
- Graphing Lines
- Vector Addition
- Trigonometric Functions

As an expert in one particular discipline, it is not expected that you be familiar with all of the individual terms above, but I do want to ensure you that the website contains about any form of simulation that you would like to use with your own students as long as it pertains to the Physical Science and Mathematics with the exception of several Biological simulations also available.

What is very nice about these PHET simulations is that they are designed with specific grade levels in mind. Some simulations work best for college students (Fourier Analysis) while other simulations work best for elementary school students (Building Fractions). Therefore, regardless of the age level of the students that you teach, there are still a plethora of simulations that you can use to your own benefit.

While this post is quite simple and is even written in a simplistic manner, I encourage you to visit the PHET Website below to start exploring the different simulations that are available to you as a mathematics and/or science teacher. Even if you are an expert in your own domain, manipulating the variables within these simulations will certainly lead to new discoveries, new knowledge, and new ways of approaching/teaching a given topic. So, go on! Try some of these simulations out!


Alright! I am caching out!

Wednesday, September 7, 2016

Cached In: Preparing 21st Century Learners

As a Physics educator who has worked in the public school system for the previous five years, I am gifted with several opportunities to speak with former students regarding their life experiences since their graduation from high school. After speaking about the students’ degree programs, courses taken, and personal attributes of their lifestyle away from home (what happens in college stays in college), I usually take the time to ask a simple question in the rare event that the question is not answered beforehand.

Did (insert school name) prepare you for college?

The overwhelmingly resounding answer, with few exceptions, is that high school did not.

But, wait just a second…

My former high school of employment has the following mission statement: “(Insert Name Here) High School will strive to graduate every student college/career ready and prepared for the 21st century.

In order for a student to be “College Ready”, students must meet their ACT (or equivalent standardized examination) benchmarks in the areas of English, Reading, and Mathematics. To be “Career Ready”, students must meet benchmarks on technical exams such as the WorkKeys, ASVAB and/or KOSSA examinations or earn an industry certification. Oh, yeah. I forgot. Students must graduate with an arbitrary 22 credits consisting of core and elective courses that are established by the Kentucky Department of Education.

Essentially, my former high school of employment believes that students performing well on four exams and who meet the graduation credit requirements are “college and career ready, and prepared for the 21st century.” As a major advocate for standardized testing, even I can see the disconnect between the reality and fantasy land that exists between what it truly means to be “College and Career Ready” and what the state government believes makes a student prepared for the 21st century.

Therefore, in a moment of quick-but-deep thought, I would like to propose a collection of generalized ideas, concepts, and principles that I feel would honestly prepare students for their continued education and their careers within the 21st century. Consider the following a generalized diploma that has been generated as a result of pertinent readings regarding education and my own personal experiences.

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1. Students will be given intentional experiences to equip them with skills to do the following:

- Plan accordingly to solve a problem so that a solution and/or series of goals can be reached
- Use a myriad of data retrieval systems (electronic and non-electronic) to locate required information that is verifable, accurate, and useful
- Analyze and synthesize data and information in an effective manner in order to reach a correct solution to a problem
- Troubleshoot issues to help determine a solution to a problem
- Work efficiently and effectively as an independent individual or part of a larger group
- Take the initiative to seek assistance from outside resources whenever tasks involving a group or an independent student alone cannot determine the solution to a problem or subset of problems
- Lead effectively and follow others efficiently in all aspects of life
- Continue solving a problem, even if the solution involves great difficulty, until the problem cannot be solved any further
- Examine and empathize with multiple perspectives and viewpoints whenever solving a problem
- Use multiple perspectives and viewpoints to change problem solving strategies to find new methods of reaching a solution
- Critically think about facts, concepts, and principles across all content areas and life, and determine the connections that can be made as a result of critical thinking
- Critically and physically apply facts, concepts, and principles across all content areas and life, and utilize the connections that can be made as a result of flourishing creativity
- Communicate effectively in public forums and within interpersonal opportunities

2. Students will demonstrate their readiness to graduate from high school based on the requirements as follow:
- A MINIMUM of 23 arbitrary course credits
                 - 3: English (English Literature, Writing in the Sciences, Writing in the Arts)
                 - 4: Mathematics (Algebra 1, Algebra 2, Geometry, & Precalculus)
                 - 3: Science (Integrated Science, Biology, and Chemistry OR Physics)
                 - 3: Social Studies (US Government, US History, European History)
                 - 1: Health/Physical Education
                 - 1: Foreign Language
                 - 2: Arts/Humanities
                 - 2: Technology/Computer Science
                 - 2: Life Literacy Course
- 3/5 ACT Benchmarks are met in the areas of English, Reading, Mathematics, and Science OR Benchmarks are met on the WorkKeys, ASVAB and/or KOSSA examinations (see the benchmark scores on the Kentucky Department of Education for a detailed breakdown)
- All students must complete one Advanced Placement course, one dual college credit course, or one career certification course; final examinations do not have to be passed
- Completion of a student portfolio that consists of at least five research/literary papers (from five different content areas), three mini-projects (from three different content areas), and three large projects (from five different content areas)
- Completion of a one-hours presentation of a student portfolio that consists of consists of at least five research/literary papers (from five different content areas), three mini-projects (from three different content areas), and three large projects (from five different content areas); this presentation must provide a rationale for including the selected items, how the selected items increased her/his knowledge/skill sets, and how the selected items have made the student more able to take on the challenges of the 21st century. Students will be required to reflect on how each of the selected items could have been improved to provide the students with an even stronger preparedness for the 21st century.
- Completion of a school leadership plan that demonstrates the student as a leader who has made a positive impact on the school, its culture, and/or with its population (students, faculty, and/or staff)

3. Students will be given an opportunity to experience “Deeper Learning” as each of the core courses (as described above) will be taught using the frameworks as described by Lez, Wells, and Kingston in Transforming Schools: Using Project-Based Learning, Performance Assessment, and Common Core Standards.

4. Students will be provided with meaningful and in-depth experiences with service learning and career interests as well as on going opportunities to experience and explore both visual and performing arts are required

5. College/Career Planning Seminars for all students, held each trimester, will assist students in creating a pathway for students to effectively transition from high school into college and/or the work force. College seminars will be required and will involve student and teacher knowledge of specific college graduation requirements, degree programs, and methods of contact for relevant college representatives for student outreach. Career seminars will be required and will involve student and teacher knowledge of specific job requirements for certification and methods of contact for relevant business and department employer outreach.

6. Students in all courses will be required to complete, with revision and multiple attempts at mastery, at least one research/literary papers, one mini-project (small projects), and one large project as outlined by each specific teacher in a twelve week course.

7. Students will be “prepared for the 21st century” by taking at least two life literacy courses that contain curricula pertaining to: budgeting money, opening and maintaining a bank account, writing checks, balancing a checkbook, using debit/credit cards, buying a car through financing or no financing, how to pay bills, completing medical-related paperwork, paying taxes, applying to college/scholarships, writing job resumes, enrolling and using insurance for car/house/medical, using the local courthouse/city hall, laundry, ironing, completing minor fixes to household appliances and vehicles, and learning their rights as United States’ citizens.

8. Students will understand the benefits and moral/legal issues related to the use of social media in modern society

9. Students will learn the importance of establishing and maintaining a clean school (environmentally and socially) 

10. Students will construct the meaning of being a U.S. Citizen, a Citizen of Kentucky, and a Citizen of her/his local community

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While the criteria described above are complicated, my question to you is the following:


Which set of criteria would be a more accurate representation of how to prepare students for the 21st century in terms of their colleges and careers; the original criteria set by my former students’ high school (and the state of Kentucky) or the criteria established above?

At this point, I have no other option but to cache in the rest of my thoughts.

Sunday, September 4, 2016

It takes Cache to Educate

Cache
/kaSH/
Computers. a temporary storage space or memory that allows fast access to data.
Examples:

Browser cache (storing of visual and coded information pertaining to a website to allow it to be accessed quicker and more efficiently upon retrieval)

Disk cache (the storing of visual and coded information pertaining to files that are contained on a computer drive so that they can be accessed quicker and more efficiently upon retrieval)

Memory cache (the storing of visual or coded information pertaining to files or processes necessary for a program to function more efficiently when in use)

When considering the examples above, it is important to note that accessing cached information takes place in the background of the operating system as the computer user is using his/her computer.

The following is a project…

More specifically, a blogging project that discusses, analyzes, and reflects upon technology that has been used in the past to guide America’s K-12 educational system since its inception to the present day. This project is more than just a historical commentary; thoughts pertaining to the present use of technology are explored along with the implications of how future technology will ultimately shape the culture associated with how students learn within the twenty first century and beyond.

Without delving too much into what we already know, it is still important to state that technology drives our nation’s economy; many businesses have begun replacing human workers with machines, assembly lines are continuously upgraded to meet the demands of consumers, and a significantly larger percentage of jobs for all Americans require the proficient use of technology in some form. “Technology” existed long before America was founded. The first fire controlled and used by prehistoric humans changed the way in which hunters and gathered obtained food, roamed the land, and survived in a myriad of climates. Tools first used for agriculture allowed communities of humans to develop as it became easier to function in closed knit, stable groups. The printing press laid the foundation for the spreading of knowledge to cultures around the globe. The assembly line was implemented to produce a large quantity of products in a minimized amount of time. The personal computer and the internet has allowed all of us access to even the most specific of information that we request.

By simply looking at my own father’s Google Chrome browser history, I can verify that he taught himself “How to reset the low tire pressure light on a 2015 Toyota Corolla”.

While not immediately obvious, the development of technology has allowed all users of the technology new means of personal education. Prehistoric humans taught themselves how to harness fire in a controlled manner, use fire to keep themselves comfortable in harsh environmental conditions, and explore how fire can shape the landscape through the use of crop burning. The printing press gave humans the opportunity to learn how to read (opportunity does not equate to immediate access to all citizens but the foundation was there) and begin the spreading of knowledge and information in relatively quick way. The computer and the internet allowed my 68-year old father to reprogram a glitch within my car.

With technology comes information. With information comes the ability for all individuals using the technology to gain experiences with the technology in order to teach themselves how the technology can be used to improve some aspect of their lives (whew).

Unfortunately, in my opinion, the country's most important investment, our current educational system is not necessarily in aligned with the organic naturalistic ways in how technology drives personal learning.

In America, our students are typically placed in a classroom of rows as they are required to watch an educated professional lecture at the front of the classroom while they use their own pencils (wow, students these days are using mechanical pencils) and paper to take notes and complete homework exercises regarding the content that they are supposed to know. In a world in which technology has allowed a man of almost seven decades of age to fix a software issue in a car that is less than two years old, many schools are still requiring their students to remember facts, perform algorithms, and re-read their own notes in order to “learn” how to become productive members of society. The current generation of students, at their young ages, are not given the experiences needed to investigate how technology can be used to increase the amount of learning that takes place in a given academic school day. In other words, the United States’ educational system is ran in an eerily similar manner to that of Henry Ford as he was producing the first affordable car to the masses; our school systems, in general, are producing the lowest common denominator of student in order to be…thrown…head first…to the masses.

Make no mistake, I LOVE our current educational system, and I am not ignorant enough to think that America does not “churn out” some of the brightest individuals on the planet. I am not as hard on the current educational system as many other renowned figures who lead educational reform, but I am cognizant and experienced enough to see that we are utilizing an archaic system that did not even meet the needs for students who took K-12 classes during the Cold War era. Much like how the automobile has improved (safety, gas mileage, creature comforts, and affordability) over the last century, I simply want to see our educational system make equivalent gains as the common car.  

One of these changes, as will be stressed throughout this project, is the need to stray away from educators’ emphasis on facts and algorithms, but, instead, teach learners how facts and algorithms can be easily accessed and learned through the use of relevant technology. By relevant technology, I am referring to all technology associated with the capacity to increase knowledge for a given topic. With the use of relevant technology, students can spend more time “understanding” (concepts) and “doing” (skills/practices) rather than memorizing (facts and algorithmic regurgitation). As an experienced educator, I can state with confidence that students will automatically remember facts and algorithms if placed in genuine situations in which those forms of knowledge must be applied.

Now I must refer back to the apparently random placement of the definition found at the beginning of the post.

Computers store visual and coded facts so that the user of the computer can perform tasks in an efficient manner that is also quick. By the computer storing such information in a cache, the user spends more “doing” and increasing “understanding” and applying the cached information. America’s students need more experience caching their facts and algorithms (in their own brain or using relevant technology such as the internet) so that they can gain a deeper understanding of what they are learning, how the world works, and how to apply the cached knowledge to create authentic experiences that are modeled after what experts do within their own careers.

And with that, I want to welcome you to the project - The Curry Cache

Anything posted in this project is not meant to be memorized or committed to long term memory; the content of this project will forever exist in space and time. Instead, I encourage you to use this cache to understand, apply, and reflect on the various posts that will be made throughout the project’s lifespan.


Just let yourself be Curry Cached