BIOLOGY FOR LIFE
  • Syllabus
    • Core >
      • 1: Cell Biology >
        • 1.1: Introduction to Cells
        • 1.2: Ultrastructure of Cells
        • 1.3: Membrane Structure
        • 1.4: Membrane Transport
        • 1.5: The Origin of Cells
        • 1.6: Cell Division
      • 2: Molecular Biology >
        • 2.1: Molecules to Metabolism
        • 2.2: Water
        • 2.3: Carbohydrates and Lipids
        • 2.4: Proteins
        • 2.5: Enzymes
        • 2.6: DNA and RNA
        • 2.7: DNA Replication, Transcription and Translation
        • 2.8: Cell Respiration
        • 2.9: Photosynthesis
      • 3: Genetics >
        • 3.1: Genes
        • 3.2: Chromosomes
        • 3.3: Meiosis
        • 3.4: Inheritance
        • 3.5: Genetic Modification and Biotechnology
      • 4: Ecology >
        • 4.1: Species, Communities and Ecosystems
        • 4.2: Energy Flow
        • 4.3: Carbon Cycling
        • 4.4: Climate Change
      • 5: Evolution and Biodiversity >
        • 5.1: Evidence for Evolution
        • 5.2: Natural Selection
        • 5.3: Classification and Biodiversity
        • 5.4: Cladistics
      • 6: Human Physiology >
        • 6.1: Digestion and Absorption
        • 6.2: The Blood System
        • 6.3: Defense Against Infectious Disease
        • 6.4: Gas Exchange
        • 6.5: Neurons and Synapses
        • 6.6: Hormones, Homeostasis and Reproduction
    • Higher Level >
      • 7: Nucleic Acids >
        • 7.1: DNA Structure and Replication
        • 7.2: Transcription and Gene Expression
        • 7.3: Translation
      • 8: Metabolism, Cell Respiration & Photosynthesis >
        • 8.1: Metabolism
        • 8.2: Cell Respiration
        • 8.3: Photosynthesis
      • 9: Plant Biology >
        • 9.1: Transport in the Xylem of Plants
        • 9.2: Transport in the Phloem of Plants
        • 9.3: Growth in Plants
        • 9.4: Reproduction in Plants
      • 10: Genetics and Evolution >
        • 10.1: Meiosis
        • 10.2: Inheritance
        • 10.3: Gene Pools and Speciation
      • 11: Animal Physiology >
        • 11.1: Antibody Production and Vaccination
        • 11.2: Movement
        • 11.3: Kidney and Osmoregulation
        • 11.4: Sexual Reproduction
    • Options >
      • D: Human Physiology >
        • D.1: Human Nutrition
        • D.2: Digestion
        • D.3: Functions of the Liver
        • D.4: The Heart
        • D.5: Hormones and Metabolism
        • D.6: Transport of Respiratory Gases
  • IB Requirements
    • Learner Profile
    • Group 4 Project
    • External Exam
    • Internal Assessment >
      • Personal Engagement
      • Exploration
      • Analysis
      • Evaluation
      • Communication
    • Extended Essay
  • Investigation Skills
    • Lab Safety
    • Microscopy
    • Lab Drawings
    • Data Tables
    • Measurement
    • Statistics >
      • Descriptive Statistics >
        • Skew
        • Measures of Central Tendancy
        • Measures of Spread
        • Pearson Correlation
      • Inferential Statistics >
        • T-Test
        • ANOVA
        • Kruskal-Wallis
        • X2 Test for Independence
        • X2 Goodness of Fit
    • Graphing >
      • Graphing with Excel
      • Interpreting Error Bars
    • Error Analysis
  • Course Info
    • Above & Beyond >
      • Biology Club
      • Pumpkin Carving
      • Scavenger Hunt
      • Science News
      • IB Bio Dance
      • Wood Duck Project
      • Invasive Crayfish Project
    • Assessment >
      • Class Grading IB Bio I
      • Class Grading IB Bio II
      • Daily Quizzes
      • Lab Practicals
    • Class Photos
    • Recommendations
    • Supplemental Reading
  • Contact
  • About
    • Philosophy
    • Resume
    • Reflection
    • Site Feedback
    • Favorite Quotes
    • AEF Blog
  • Expeditions
    • Bahamas (2009)
    • Trinidad (2010)
    • Trinidad (2011)
    • Ecuador (2012)
    • Trinidad (2013)
    • Peru (2014)
    • Bahamas (2015)
    • Peru (2016)
    • Costa Rica (2017)
    • Costa Rica (2018)
    • Arizona (2022)
    • Florida (2023)
  • Summer Ecology Research

The Supreme Importance of Teaching

9/17/2017

 
"It is the supreme art of the teacher to awaken joy in creative expression and knowledge."
Albert Einstein


Those of you who know me, know that I LOVE CLASSROOM TEACHING.  I love the energy, humor, variation, and challenge of teaching.  During this time of year when my colleagues and former students are returning to classrooms, I am thankful to have the opportunity to pause and reflect on my career as a teacher. 
Why would I love teaching?  After all, teachers have traditionally been underpaid, overworked and undervalued in society.  I won't sugar coat it; many times a year I question why I do this work.  I give up family time for grading and I often have to face the question of why I don’t “do more” with my intelligence and scientific understanding.  Yet, each year and I am filled with a sense of gratitude for the work I do, the people I work with and most of all, the students that fill my day with laughter, curiosity and joy. Teachers inspire the minds of the future and give students the knowledge and tools to succeed in school and beyond the classroom. ​
Picture
Some personal evidence of the impact of a teacher
I was curious about the numbers of teachers in the United States, which lead me into a web of data and estimates and surveys and graphs.  What I present here is really a "quick and dirty" summary of what I can find with a few minutes of web searching.  This is not dissertation level research, however, it might elucidate some of our country's need for more teachers!  According to the Bureau of Labor Statistics, there are 961,600 secondary (middle and high) school teachers in the United States.  Of that, from what data I can find with a quick search, there are about 15.1 million secondary school students and about 211,000 science teachers.  A quick division and I estimate there are roughly 72 kids per secondary science teacher in the United States*.  That's a lot of impact made on individual kids by individual science teachers.   And, a lot more kids are taking science classes than in the past.  ​
Percentage of High School Graduates who Completed Math and Science Courses in High School
Picture
https://nces.ed.gov/programs/coe/indicator_cod.asp
​​I guess my point here is that science teachers make a big difference in the lives of individual kids, and that impact really scales up to having large impact in our country.
Knowing how important teachers are to our nation and to individual kids, I am thrilled when one of my former students decides to become a science teacher.  I am proud of whatever role or influence I've had on these science educators who once were students in my class:  Lauren (class of 2009), Hannah (class of 2010),  Daniel (class of 2011) and Kristen (class of  2006).  **  I can now add one more to my list!  Casey is my former student (class of 2013), came with us to tag leatherback sea turtles in Trinidad, studied biology at UW, works at Woodland Park Zoo and is getting her Masters in Teaching at the UW.  And, she is currently student teaching at Skyline to become a biology teacher.  At my invitation, Casey was able to come to Washington, DC this past weekend to attend a pre-service teacher professional development at the American Association for the Advancement of Science.  It was great to visit with Casey and to transition our relationship from teacher-student to one of mentor-colleague-friend.  Welcome to the crazy, rewarding, challenging and IMPORTANT work of science teaching.  Our nation needs you.
Picture
Casey and I exploring our Nation's Capitol
* 72 students per teacher is a National average.  Obviously, averages are important... but for perspective, last year I taught about 160 kids.  So, there is likely a very large standard deviation around this average. 

​** let me know if you are my former student and now are a science teacher yourself!
    Picture

    Author

    I’m Gretel von Bargen and I was an Einstein Fellow in the Department of Energy, Office of Science.  During my fellowship year (2017-2018) I worked within the Workforce Development for Teachers and Scientists (WDTS) office.  Aligned with the goals of the WDTS office, I am committed towards creating a sustained pipeline of skilled science, technology, engineering and math (STEM) workers and teachers. As a dedicated STEM educator, I work to develop my students understanding and appreciation for the nature of science and the natural world.  In addition to the important work I did related to the National Science Bowl, I had three goals for my Fellowship year.  First, I was looking to build relationships and connections between the scientific and education communities, aiming for increased opportunity for high school students to gain authentic experiences with practicing scientists.  Second, I wanted to deepen my understanding of the complexities of the national STEM teacher shortage, specifically exploring the role active classroom teachers play in communicating the joys and challenges of a STEM teaching career.  Third, I was looking to broaden my own scientific content knowledge so that students benefit from an added depth, breadth and interdisciplinary connections in future lessons. 

    Viewpoints are my own and not representative of the Fellowship Program or the agency in which I was placed.  ​​

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    January 2018
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    August 2017

I give many of my IB Biology resources away, for the benefit of students and teachers around the world. 
If you've found the materials helpful, please consider making a contribution of any amount
to 
this Earthwatch Expedition Fund. 

​Did I forget something?  Know of a mistake? Have a suggestion?  Let me know by emailing me here.

Before using any of the files available on this site,
​please familiarize yourself with the 
Creative Commons Attribution License. 
​​​It prohibits the use of any material on this site for commercial  purposes of any kind.  ​


"When we try to pick out anything by itself, we find it hitched to everything else in the Universe." 
 John Muir,   1911
  • Syllabus
    • Core >
      • 1: Cell Biology >
        • 1.1: Introduction to Cells
        • 1.2: Ultrastructure of Cells
        • 1.3: Membrane Structure
        • 1.4: Membrane Transport
        • 1.5: The Origin of Cells
        • 1.6: Cell Division
      • 2: Molecular Biology >
        • 2.1: Molecules to Metabolism
        • 2.2: Water
        • 2.3: Carbohydrates and Lipids
        • 2.4: Proteins
        • 2.5: Enzymes
        • 2.6: DNA and RNA
        • 2.7: DNA Replication, Transcription and Translation
        • 2.8: Cell Respiration
        • 2.9: Photosynthesis
      • 3: Genetics >
        • 3.1: Genes
        • 3.2: Chromosomes
        • 3.3: Meiosis
        • 3.4: Inheritance
        • 3.5: Genetic Modification and Biotechnology
      • 4: Ecology >
        • 4.1: Species, Communities and Ecosystems
        • 4.2: Energy Flow
        • 4.3: Carbon Cycling
        • 4.4: Climate Change
      • 5: Evolution and Biodiversity >
        • 5.1: Evidence for Evolution
        • 5.2: Natural Selection
        • 5.3: Classification and Biodiversity
        • 5.4: Cladistics
      • 6: Human Physiology >
        • 6.1: Digestion and Absorption
        • 6.2: The Blood System
        • 6.3: Defense Against Infectious Disease
        • 6.4: Gas Exchange
        • 6.5: Neurons and Synapses
        • 6.6: Hormones, Homeostasis and Reproduction
    • Higher Level >
      • 7: Nucleic Acids >
        • 7.1: DNA Structure and Replication
        • 7.2: Transcription and Gene Expression
        • 7.3: Translation
      • 8: Metabolism, Cell Respiration & Photosynthesis >
        • 8.1: Metabolism
        • 8.2: Cell Respiration
        • 8.3: Photosynthesis
      • 9: Plant Biology >
        • 9.1: Transport in the Xylem of Plants
        • 9.2: Transport in the Phloem of Plants
        • 9.3: Growth in Plants
        • 9.4: Reproduction in Plants
      • 10: Genetics and Evolution >
        • 10.1: Meiosis
        • 10.2: Inheritance
        • 10.3: Gene Pools and Speciation
      • 11: Animal Physiology >
        • 11.1: Antibody Production and Vaccination
        • 11.2: Movement
        • 11.3: Kidney and Osmoregulation
        • 11.4: Sexual Reproduction
    • Options >
      • D: Human Physiology >
        • D.1: Human Nutrition
        • D.2: Digestion
        • D.3: Functions of the Liver
        • D.4: The Heart
        • D.5: Hormones and Metabolism
        • D.6: Transport of Respiratory Gases
  • IB Requirements
    • Learner Profile
    • Group 4 Project
    • External Exam
    • Internal Assessment >
      • Personal Engagement
      • Exploration
      • Analysis
      • Evaluation
      • Communication
    • Extended Essay
  • Investigation Skills
    • Lab Safety
    • Microscopy
    • Lab Drawings
    • Data Tables
    • Measurement
    • Statistics >
      • Descriptive Statistics >
        • Skew
        • Measures of Central Tendancy
        • Measures of Spread
        • Pearson Correlation
      • Inferential Statistics >
        • T-Test
        • ANOVA
        • Kruskal-Wallis
        • X2 Test for Independence
        • X2 Goodness of Fit
    • Graphing >
      • Graphing with Excel
      • Interpreting Error Bars
    • Error Analysis
  • Course Info
    • Above & Beyond >
      • Biology Club
      • Pumpkin Carving
      • Scavenger Hunt
      • Science News
      • IB Bio Dance
      • Wood Duck Project
      • Invasive Crayfish Project
    • Assessment >
      • Class Grading IB Bio I
      • Class Grading IB Bio II
      • Daily Quizzes
      • Lab Practicals
    • Class Photos
    • Recommendations
    • Supplemental Reading
  • Contact
  • About
    • Philosophy
    • Resume
    • Reflection
    • Site Feedback
    • Favorite Quotes
    • AEF Blog
  • Expeditions
    • Bahamas (2009)
    • Trinidad (2010)
    • Trinidad (2011)
    • Ecuador (2012)
    • Trinidad (2013)
    • Peru (2014)
    • Bahamas (2015)
    • Peru (2016)
    • Costa Rica (2017)
    • Costa Rica (2018)
    • Arizona (2022)
    • Florida (2023)
  • Summer Ecology Research