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Administrative Procedure 7341 Sabbaticals FORM B REPORT ON SABBATICAL LEA VE Name: Paul Ustach Period of Leave: Spring 2011 Place or Places Where Leave Was Taken: Castlcrea. County Rosco1nn1on. Ireland OBJECTIVES TO BE ACHIEVED BY SABBATICAL: HOW OBJECTIVES WERE ACHIEVED: 1. To write and illustrate a laboratory book for Biology 10 (Survey of Biology for non 1. Upon completion of the sabbatical period, the entire lab book was written, and science majors). This book is to be written in comic book formal and be ready for illustration commenced. submission for publication. Writing and drawing this book has been a dream of mine ever since I started teaching and I'm grateful for San Joaquin Delta College for granting me leave from my teaching duties to commence achieving this goal, I full heartedly believe this book will strengthen my ability to communicate science to a population of students that sometimes might not always have the greatest attitude towards or perhaps harbor some phobia for a science-based course. Attached is printout of the entire script wl'itten for the lab book and some sample illustrated chapters. Although I proposed that I would have the entire book ready to be submitted for publication at the end of the sabbatical period, I have found that prediction to be naive. Being my first attempt at publishing a comic book, I underestimated the amount of time and labor required for the process. Each page must be designed conceptually, the text blocked and lettered, and finally each drawing is rendered in pencil first before it is done again in ink for the final product. I cheerfully spent more time working on this project than the hours I spend in instruction, I am grateful for the various committees and authorities for granting me the privilege of commencing this project. This project has been in the back of my head since graduate school but my teaching obligations have made it second priority. I have used the time granted to me on this sabbatical to make it my first priority. My passions have always been equally devoted to nature, art and people and I see no better way of combining ail of these loves to use than in the teaching profession with this lab book. I am eager to finish this project and believe this labor of love has strengthened my qualifications to render better work performance in the years ahead. I look forward to presenting the finished project to members of this committe and my colleagues, but most eagerly, to my students, t, 13oc.r.z..011 Applicant's Signature Date APPROVALS: Date Salary Administration Committee Assistant Superintendent/Vice President Superintendent/President Board ofrfrustces Amended 09-26-07 BIOLOGY 10 LABORATORY EXERCISES LAB #1: QUANTITATIVE MEASUREMENT LAB #2: A LIVING ORGANISM LAB #3: LABORATORY EQUIPMENT LAB #4: SOILS LAB #5: PLANT AND ANIMAL CELLS LAB #6: OSMOSIS LAB #7: CELLULAR RESP IRATIO NS LAB #8: MITOSIS LAB #9: B!OMES AND ENERGY FLOW LAB #10: TAXONOMY AND BIODIVERSITY LAB #11: PROKARYOTES LAB #12: PROTISTA LAB #13: FUNGI LAB #13: AQUATIC PLANTS (THALOPHYTA) LAB #13: SEEDLESS PLANTS LAB #14: SEED PLANTS LAB #15: SPONGES AND JELLIES LAB #16: "WORMS" LAB #17: ARTHROPODS LAB #18: MOLLUSCA LAB #19: ECHINODERMATA LAB #19: CHORDATES WITH NO BACKBONE LAB #20: JAWLESS FISH LAB #20: SHARKS AND RAYS LAB #21: BONY FISH LAB #22: AMPHIBIANS LAB #22: SQUAMATE REPTILES AND TURTLES LAB #23: ARCHOSAURS LAB #24: BIRDING ON CAMPUS LAB #25: MAMMALS Biology 10 Lab #1 Page 1 of 5 QUANTITATIVE MEASUREMENT INTRODUCTION Humans have been measuring things, in one form or another, as a means of snrvival for a very long time. The first form of measurement is refened to as relative measurement or qualitative measurement. Early human hunter-gatherer societies did sufficiently well on concepts of "more," "less" and "enough" (enough food for the week, enough rocks for tools, etc). But HEY! This is a science class, and we are interested in quantitative measurement. Science is a method of inquiry that prefers to deal with quantities. When we say we want to quantify something, it means we are going to count it. You can convert the concept of "more" or "big" into a number that tells you exactly how much "more" or how "big." So, we need a system of units that we will designate as a reference standard of measurement. The designation of the reference standard unit is somewhat arbitra1y. In the early days of quantitative measurement, the standards were as VaJied as there were human cultures that quantified things. For ex3.lllple, the oldest known standard measurement of length is the cubit (first recorded by the Egyptian and Sumerian kingdoms). A cubit is approximately equal to the length of a man's forearm. However, the problem was that this "standard" varied from culture to culture. The Romans had a cubit (incidentally, the naJne comes from the Latin cubitum, which means elbow) but their cubit was longer than the Egyptians. The British Commonwealth was the last to use the cubit and it was defined as eighteen inches. Speaking of the British Conunonwealth, the standard of measurement in the United States that you are probably most familiar with is derived from the British Imperial System and is now called the United States Customary System. The units are the inch, the foot, the yard, and the mile. The inch was first defined as the distance between the tip of the thumb and the knuckle of the thumb. A foot was the length of, you guessed it, a man's foot. A yard was roughly a man's stride. That's just for distance. Want to covert ounces to dr3.llls? But wait, is that fluid ounces or weight ounces? Everyone knows how many cups are in quart, right? How many drams are in a ton? How much beer is in a hogshead? Well, I hope you like math. The inch-pound system requires the use of a variety of different numerical values (5280 feet per mile, 12 inches per foot, 3 feet per yard, 32 ounces per quart, 16 ounces per pound, etc.) that require tedious arithmetical calculation to convert from one to another. The metric system As scientists and conunerce started to cross political borders the need for one standard of measurement for the world was becoming more necessary. The answer: the metric system. The basic unit oflength in the metric system is the meter. According to the Conference Generale des Poids et Mesures (a bunch of delegates responsible for Biology 10 Lab #1 Page 2 of 5 regulating and improving tbe metric system) the meter is accurately defined as the 1 distance light travels in a vacuum in /299,792,458 seconds. There you go. The basic unit of volume is tbe liter. A liter is defined as a cubic decameter. The weight of a cubic decameter of water is a kilogram. The metric system operates in multiples of 1O; conversion among units merely requires the movement of a decimal point. Here are some nice tables you can refer to tbat show the relationship among the various metric units (also refer to Appendix I, page 640 in your lecture text book) DISTANCE 'I 'I kilometer hectometer decameter da meter ill decimeter d centimeter cm millimeter mm micrometer nanometer n 1o· NOTE: one inch is roughly equivalent to 2.54 centimeters. VOLUME kiloliter hectoliter decaliter dal liter 1 deciliter di 10· centiliter cl 10· milliliter ml 10· NOTE: one liter is roughly equivalent to 1.06 quarts. 10 dg 10· centigram cg 1o· milli am m 1o· NOTE: one kilogram is roughly equivalent to 2.2 pounds. Biology I 0 Lab # l Page 3 of 5 EXERCISE I. Procure a meter stick (resist the temptation to use it like a light saber). a. How many meters are on the meter stick? b. How many centimeters are on the meter stick? c. How many millimeters are on the meter stick? Surface area 2. Your surface area (essentially, your skin) is two dimensional like this piece of paper. We could skin you and stretch your skin out like a rug and measure the area. Using a meter stick, measure the dimensions of the top surface of your lab station a. LENGTH: i. in centimeters ------- ii. in millimeters -------- b. WIDTH: i. in centimeters -------- ii. in millimeters -------- 3. Calculate the surface are of the counter top of your lab station (Area= LENGTH xWIDTH) a. in centimeters b. in millimeters Volume 4. Remember, volume has three dimensions, the first two are the same as the surface area, length times width, then that number is multiplied by a third dimension: the height. Think of it as the surface area stacked up on itself the length of the width. Your volume is three-dimensional and cannot be represented on this piece of paper. Determine the volume of the counter top of your lab station. a. LENGTH: i. in centimeters ------- ii. in millimeters ------- b. WIDTH: i. in centimeters ------- ii. in millimeters ------- c. HEIGHT: 1. in centimeters ------- ii. in millimeters ------- 5. The volume of your lab station counter top in centimeters is: 6. Determine your height in centimeters and record your answer below: 7. How many inches tall are you? Biology I 0 Lab# 1 Page 4 of5 8. Examine the height marks on the wall next to the measuring tape. Are there any patterns that have to do with male or female heights in Biology 1O? 9. Are there any patterns that you can say about the height of Biology 10 students? 10. Use the bathroom scale to detennine your weight in kilograms (kg).