Category: Curriculum Map

Chapter 1 Worksheet BI

 

Biology – Science of Life

 

Section 1-1            Themes of Biology 

1. How many species of organisms are estimated to inhabit the Earth? 

2. About how many species have actually been identified? 

3. When did the first life forms probably arise on Earth? 

4. What was the first organism like? 

5.  What is an organism? 

6. Most unicellular organisms can only be seen with a __________________________.

7. Where did these first cells live? 

8. Over time, organisms _____________ and new kinds of _______________ arose from ___________ of organisms and came to inhabit every _______________ of the Earth. 

9. Define biology. 

10. Name several things that the study of biology would include. 

11. The study of biology is unified by ___________________________. 

12. Name 6 unifying themes of biology. 

13. What is a cell? Where are they found? 

14. What is the difference between a unicellular & a multicellular organism? 

15. Cells are ___________________ but highly _______________________.

16. Are all cells alike? Explain. 

17. All cells are surrounded by a ____________ & contain _____________  instructions. 

18. Genetic instructions are used by cells to make new __________ and new cell ________________. 

19. How do new cells produced by unicellular organisms compare to the parent unicellular organism? 

20. How do mature multicellular organisms begin their life? 

21. If multicellular organisms begin their life as one cell, how do they have so many cells? Explain. 

22. Give an example of an organism maintaining a stable internal environment. 

23. Define homeostasis and tell whether it occurs in unicellular&/or multicellular organisms. 

24. Genetic information is passed to offspring during _______________________.

25. What molecule contains the cell’s hereditary information?

26.  How does DNA exist in multicellular organisms? In unicellular organisms? 

27. What is a gene?

28. In multicellular organisms, each body cell has an _____________ copy of its DNA.

29. Does each cell in a multicellular organism use all the genes on its DNA? Explain. 

30. Explain sexual reproduction. 

31. When a sperm joins with an egg to make a fertilized cell, what happens next to this cell? 

32. New organisms from sexual reproduction have _______________ material from both parents.

33. Explain asexual reproduction. 

34. Name a unicellular organism that reproduces by asexual reproduction.

35. New cells or organisms from asexual reproduction have ____________ genetic information. 

36. What is evolution? 

37. Do individuals or populations evolve? 

38. What is the driving force for evolution? 

39. Explain natural selection and give an example. 

40. Competition for what types of resources drives natural selection? 

41. Why is it so important to a species for members to survive? 

42. Organisms that survive and reproduce are ones with ________________ traits.

43. Define ecology. 

44. What are ecosystems and give an example? 

45. Name 3 things organisms must get from the environment to survive. 

46. What has been the effect of man’s activities on many ecosystems? 

47. Living things are _______________ and need a constant supply of _________________.

48. What process supplies energy for organisms on Earth? 

49. Define autotroph. 

50. Autotrophs trap _________ and use this energy to combine __________ and  _________ into__________ and starches. 

51. Define heterotrophs. 

52. Give an example of an autotroph.

53. Give several examples of heterotrophs. 

54. How do heterotrophs get their food? 

Section 1-2            World of Biology 

55. List 6 characteristics shared by all living things. 

56. All living things composed of  _________________.

57. Cells may be specialized in _________________ organisms. What does this mean?

58. What is always true about cell size?

59. Living things are organized at what 2 levels?

60. How are cells organized in multicellular organisms?

61. Define metabolism. 

62. The energy from metabolism is used for ___________, ___________, and _______________ of organisms. 

63. What is homeostasis and give an example? 

64. Is growth a characteristic of living and nonliving things? Explain.

65. What 2 things must occur for living things to grow?

 

 

66. Define cell division.

 

 

 

67. Define development.

 

 

 

68. Explain why development is necessary for multicellular organisms?

 

 

 

69. Is reproduction essential to the survival of a species? Explain.

 

 

 

70. Sexual reproduction produces offspring ______________________ to the parents.

 

71. Have all organisms been identified? Explain.

 

 

Section 1-3            Scientific Method

 

72. Scientists solve problems using the ___________________________.

 

73. The first step of the scientific method is when scientists make ___________________ of the natural world.

74. Define data.

 

 

 

75. What does a scientist usually employ in making their observations?

 

 

76. What is quantitative data?

 

77. What is sampling & why is it used by scientists?

 

 

 

78. What 2 things must be true for samples to be useful?

 

 

79. To be useful, data must be _____________________ into ____________________,

 

       ______________________, and _____________________, or maps.

 

80. Once an observation is made, the second thing a scientist must do is to develop a(n) ___________________________.

 

81. Define hypothesis.

 

 

 

82. All hypotheses must be __________________ to give supporting evidence.

 

83. What is a prediction & how are they usually written?

 

 

 

84. What is an experiment?

 

 

 

85. Name the 2 groups in a controlled experiment.

 

 

86. Both groups in an experiment are identical except for ___________ factor called the

 

       ___________________.

87. Name the 2 types of variables in a controlled experiment.

 

 

 

88. After data is collected and organized, it must be __________________ to tell if it is reliable.

 

89. If experimental data does not support the hypothesis, what should be done?

 

 

90. What is a scientific model?

 

 

91. What is an inference?

 

 

 

92. How is a theory formed?

 

 

93. Define theory.

 

 

94. What is the difference between a field biologist and a laboratory biologist? Do they both use the scientific method?

 

 

 

 

95. What do scientists do with the results of their scientific studies?

 

 

 

Section 1-4            Microscopes & Measurement

 

96. What is a microscope?

 

 

97. What is the difference between resolution & magnification?

 

 

 

 

98. When would a microscope be used?

 

 

99. Do all microscopes have the same magnification & resolution?

 

100.  Draw and label the parts of a light (LM) microscope.

 

 

 

 

 

 

 

 

 

101. Tell the function of each of these parts of an LM — stage, light source, objective lens, ocular lens, & nosepiece.

 

 

 

 

 

 

102. To view specimens with a light microscope, they must be placed on a _______________

 

         and be ________________ so light will pass through to the lenses & your eyes.

 

103. What is the power of magnification & explain how it is determined?

 

 

 

104. Light microscopes can only magnify up to ______________ before the image becomes blurry.

105. What type of scope is used to view viruses & cell parts?

 

106. What produces an image with the electron microscope?

 

 

107. Name the 2 main types of electron microscopes.

 

108. What is the highest magnification for the TEM? For the SEM?

 

 

109. Can electron microscopes be used to view living cells?

 

110. What type of scope gives a magnified view of an object’s surface?

 

111. What is the standard unit of measurement used by scientists?

 

112. Name the SI base units, what they measure, & give their abbreviations (table 1-1, page 23)

 

 

 

 

 

 

113. The SI system is based on units of __________ with designated _________________.

 

114. Give the SI prefix for these base units — 1000, .01, .001, .000001, .000000001, & .000000000001.

 

 

 

 

 

115. Give the SI unit for area, volume, and time.

 

 

Chapter 2 Chemical Context of Life Objectives

 

 

Chapter 2 Chemical Context of Life
Objectives

Elements and Compounds

  1. Distinguish between an element and a compound.
  2. Identify the four elements that make up 96% of living matter.
  3. Define the term trace element and give an example.

Atoms and Molecules

  1. Draw and label a simplified model of an atom.  Explain how this model simplifies our understanding of atomic structure.
  2. Distinguish between each of the following pairs of terms:
    1. neutron and proton
    2. atomic number and mass number
    3. atomic weight and mass number
  3. Explain how the atomic number and mass number of an atom can be used to determine the number of neutrons.
  4. Explain how two isotopes of an element are similar.  Explain how they are different.
  5. Describe two biological applications that use radioactive isotopes.
  6. Define the terms energy and potential energy.  Explain why electrons in the first electron shell have less potential energy than electrons in higher electron shells.
  7. Distinguish among nonpolar covalent, polar covalent and ionic bonds.
  8. Explain why strong covalent bonds and weak bonds are both essential in living organisms.
  9. Distinguish between hydrogen bonds and van der Waals interactions.
  10. Give an example that illustrates how a molecule’s shape can determine its biological function.
  11. Explain what is meant by a chemical equilibrium.

 
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Chapter 23 AP Objectives

 

Chapter 23    Evolution of Populations
Objectives
Population Genetics
1. Explain the statement “It is the population, not the individual, that evolves.”
2. Explain how Mendel’s particulate hypothesis of inheritance provided much-needed support for Darwin’s theory of evolution by natural selection.
3. Distinguish between discrete and quantitative traits. Explain how Mendel’s laws of inheritance apply to quantitative traits.
4. Explain what is meant by “the modern synthesis.”
5. Define the terms population, species, and gene pool.
6. Explain why meiosis and random fertilization alone will not alter the frequency of alleles or genotypes in a population.
7. List the five conditions that must be met for a population to remain in Hardy-Weinberg equilibrium.
8. Write the Hardy-Weinberg equation. Use the equation to calculate allele frequencies when the frequency of homozygous recessive individuals in a population is 25%.
Mutation and Sexual Recombination
9. Explain why the majority of point mutations are harmless.
10. Explain why mutation has little quantitative effect on allele frequencies in a large population.
11. Describe the significance of transposons in the generation of genetic variability.
12. Explain how sexual recombination generates genetic variability.
Natural Selection, Genetic Drift, and Gene Flow
13. Explain the following statement: “Only natural selection leads to the adaptation of organisms to their environment.”
14. Explain the role of population size in genetic drift.
15. Distinguish between the bottleneck effect and the founder effect.
16. Describe how gene flow can act to reduce genetic differences between adjacent populations.
Genetic Variation, the Substrate for Natural Selection
17. Explain how quantitative and discrete characters contribute to variation within a population.
18. Distinguish between average heterozygosity and nucleotide variability. Explain why average heterozygosity tends to be greater than nucleotide variability.
19. Define a cline.
20. Define relative fitness.
a. Explain why relative fitness is zero for a healthy, long-lived, sterile organism.
b. Explain why relative fitness could be high for a short-lived organism.
21. Distinguish among directional, disruptive, and stabilizing selection. Give an example of each mode of selection.
22. Explain how diploidy can protect a rare recessive allele from elimination by natural selection.
23. Describe how heterozygote advantage and frequency-dependent selection promote balanced polymorphism.
24. Define neutral variations. Explain why natural selection does not act on these alleles.
25. Distinguish between intrasexual selection and intersexual selection.
26. Explain how female preferences for showy male traits may benefit the female.
27. Describe the disadvantages of sexual reproduction.
28. Explain how the genetic variation promoted by sex may be advantageous to individuals on a generational time scale.
29. List four reasons why natural selection cannot produce perfect organisms.

 
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Chapter 2 Worksheet BI – Chemistry

 

Chemistry Worksheet

 

Section  2-1    Composition of Matter  

1. Define matter.

2. Define mass.

3. Explain the difference between mass & weight.

4. Why do biologists study chemistry?

5. Define element.

6. Name the 4 elements that make up 90% of the mass of living things. Give the symbol for each of these elements.

7. Explain why some elements such as sodium have odd symbols.

8. Sketch a block from the periodic table and label the atomic number, atomic mass, & symbol for the element.

9. Define atom and tell whether they can be seen.

10. What is the center of an atom called & what 2 subatomic particles are found there?

11. How does the charge of a proton differ from the charge of a neutron?

12. Where is most of the mass of an atom concentrated?

13. How is the atomic number of an element determined?

14. What is the charge on an electron?

15. Explain why the overall or net charge on an atom is zero.

16. Where are electrons found in an atom & describe their movement?

17. In which energy levels do the electrons have more energy?

18. How many electrons can these energy levels hold   — a. first?        b. second? 

19. Define compound and write a formula for water, carbon dioxide, & sodium chloride (table salt).

20. Do compounds have the same chemical properties as the elements that compose them?

21. When would an atom be chemically stable (not react)?

22. What occurs in a chemical reaction?

23. What is a covalent bond?

24. Define molecule.

25. Give an example of a gas that exists as a molecule.

26. Define ionic bond.

27. What is an ion?

28. Name a compound formed from — a. covalent bonding?            b. ionic bonding?

29. If electrons are shared, a(n) ______________ compound forms.

30. If electrons are transferred, a(n) _____________ compound forms.

31. Forming ionic or covalent bonds helps make atoms more ________________.

Section 2-2    Energy 

32. All living things require _____________ to do work.

33. Energy can’t be created or _____________ in a chemical reaction, but it can be _____________ from one form into another.

34. Name 4 forms of energy important to living things.

35. What is free energy?

36. Give an example of energy changing form in an organism.

37. Atoms & molecules are in constant _______________.

38. Name the 3 main states of matter.

39. Explain how the shape and volume of a solid, liquid, and gas differ.

40. Organisms undergo thousands of ____________ as part of their life processes.

41. Where are the reactants and products in a chemical equation?

42. What does a two-direction arrow mean in a chemical equation?

43. _______________ are broken down in chemical reactions in your body to release ___________ and produce _______________ and ______________.

44. What is the difference between an endergonic & exergonic reaction?

45. What is activation energy?

46. What effect does a catalyst have on activation energy?

47. What are biological catalysts called?

48. Redox is the abbreviation for what type of reaction?

49. Redox reactions involve the transfer of energy and _________ between atoms.

50. What happens during oxidation?

51. What happens during reduction?

52. Give an example of oxidation.

53. Give an example of reduction.

Section 2-3        Solutions   

54. Many of the chemical reactions in organisms take place in __________.

55. What is a solution?

56. Give an example of a complex solution in your body.

57. Name & describe the 2 parts of a solution.

58. What is meant by concentration of the solution?

59. How do you get a saturated solution?

60. What are aqueous solutions?

61. Explain dissociation of water molecules.

62. Name and give the charge for the 2 ions formed whenever water dissociates.

63. Write the final equation for the dissociation of water.

64. What is the hydronium ion?

65. How are acidity and alkalinity measured?

66. When would a solution be neutral?    Give an example of a neutral solution.

67. When would solutions be considered as acidic?

68. Acids have what taste?

69. Acids form what ion in water?

70. Give an example of an acid in your stomach.

71. When would solutions be considered as a base?

72. What adjective refers to basic solutions?

73. Give an example of a base.

74. What ion forms whenever a base is dissolved in water?

75. How does a base taste and feel?

76. How is soap made?

77. What is the pH scale used for?

78. What is the range for the pH scale?

79. At what pH would you find each of these solutions on a pH scale:    a. acids?    b. Bases?    c. neutral?

80. How many times stronger is a pH of 3 than a pH of 5?

81. A change of one pH unit reflects a __________ change.

82. Why is controlling the pH range important to organisms?

83. How do organisms control their pH levels?

84. What is a buffer?

85. Give an example of a human body fluid that is:    a. acidic?    b. alkaline?


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Chapter 24 AP Objectives

 

Chapter 24    Origin of Species
Objectives
What Is a Species?
1. Distinguish between anagenesis and cladogenesis.
2. Define Ernst Mayr’s biological species concept.
3. Distinguish between prezygotic and postzygotic isolating mechanisms.
4. Describe five prezygotic isolating mechanisms and give an example of each.
5. Explain a possible cause for reduced hybrid viability.
6. Explain how hybrid breakdown maintains separate species even if fertilization occurs.
7. Describe some limitations of the biological species concept.
8. Define and distinguish among the following: ecological species concept, paleontological species concept, phylogenetic species concept, and morphological species concept.
Modes of Speciation
9. Distinguish between allopatric and sympatric speciation.
10. Explain the allopatric speciation model and describe the mechanisms that may lead to divergence of isolated gene pools.
11. Describe examples of adaptive radiation in the Galápagos and Hawaiian archipelagoes.
12. Explain how reproductive barriers evolve. Describe an example of the evolution of a prezygotic barrier and the evolution of a postzygotic barrier.
13. Define sympatric speciation and explain how polyploidy can cause reproductive isolation.
14. Distinguish between an autopolyploid and an allopolyploid species and describe examples of each.
15. Describe how cichlid fishes may have speciated in sympatry in Lake Victoria.
Adaptive Radiation
16. Define adaptive radiation and describe the circumstances under which adaptive radiation may occur.
17. Describe the two gene loci implicated in speciation in Mimulus.
From Speciation to Macroevolution
18. Explain in general terms how a complex structure can evolve by natural selection.
19. Define exaptation and illustrate this concept with an example.
20. Explain how slight genetic divergences may lead to major morphological differences between species.
21. Explain how the evolution of changes in temporal and spatial developmental dynamics can result in evolutionary novelties.
22. Define evo-devo, heterochrony, allometric growth, and paedomorphosis.
23. Explain why extracting a single evolutionary progression from a fossil record can be misleading.
24. Define and illustrate the concept of species selection.
25. Explain why evolutionary change is not goal-directed.
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