Classification Practice Test

Similar documents
Classification and Viruses Practice Test

Multiple Choice Write the letter on the line provided that best answers the question or completes the statement.

Section 18-1 Finding Order in Diversity

chapter 18 Multiple Choice Identify the choice that best completes the statement or answers the question.

Summary Finding Order in Diversity Modern Evolutionary Classification

Name: Class: Date: ID: A

Finding Order in Diversity

CH. 18 Classification

Background: Why Is Taxonomy Important?

Classification Cladistics & The Three Domains of Life. Biology Mrs. Flannery

Finding Order in Diversity

CLASSIFICATION NOTES

Classification Systems. Classification is just a fancy word for organization. So this chapter is equivalent to Biology cleaning its room!

Chapter 18 Classification

SECTION 17-1 REVIEW BIODIVERSITY. VOCABULARY REVIEW Distinguish between the terms in each of the following pairs of terms.

Chapter 18: Classification Structured Notes

9.3 Classification. Lesson Objectives. Vocabulary. Introduction. Linnaean Classification

Finding Order in Diversity

Autotrophs capture the light energy from sunlight and convert it to chemical energy they use for food.

CLASSIFICATION. Why Classify? 2/18/2013. History of Taxonomy Biodiversity: variety of organisms at all levels from populations to ecosystems.

Classification Systems. - Taxonomy

Chapter 17. Organizing Life's Diversity

Taxonomy and Biodiversity

Taxonomy. The science of naming organisms.

Classification of Organisms

9/19/2012. Chapter 17 Organizing Life s Diversity. Early Systems of Classification

Chapter 17A. Table of Contents. Section 1 Categories of Biological Classification. Section 2 How Biologists Classify Organisms

Classification. A. Why classify?

CLASSIFICATION OF LIVING THINGS

Organizing Life s Diversity Section 17.1 Classification

What are living things, and how can they be classified?

2 Big Challenges of Classification

Phylogeny 9/8/2014. Evolutionary Relationships. Data Supporting Phylogeny. Chapter 26

Outline. Classification of Living Things

Unit 9: Taxonomy (Classification) Notes

Unit 8 Classification

The Classification of Plants and Other Organisms. Chapter 18

Vocabulary: Fill in the definition for each word. Use your book and/or class notes. You can put the words in your own words. Animalia: Archaea:

The Tree of Life. Chapter 17

Taxonomy. Taxonomy is the science of classifying organisms. It has two main purposes: to identify organisms to represent relationships among organisms

Modern Evolutionary Classification. Section 18-2 pgs

Fig. 26.7a. Biodiversity. 1. Course Outline Outcomes Instructors Text Grading. 2. Course Syllabus. Fig. 26.7b Table

Chapter 17. Table of Contents. Objectives. Taxonomy. Classifying Organisms. Section 1 Biodiversity. Section 2 Systematics

Biology Test Review: Classification/Taxonomy

Concept Modern Taxonomy reflects evolutionary history.

What is classification? Basically classification is a fancy word for organization.

Building the Tree of Life

Unit 5: Taxonomy. KEY CONCEPT Organisms can be classified based on physical similarities.

CLASSIFICATION. Similarities and Differences

Chapter 18: Classification

8/23/2014. Phylogeny and the Tree of Life

What makes things alive? CRITERIA FOR LIFE

Introduction. Recall: 1) Life is both similar and diverse 2) Evolution helps us understand who is related to who

The Living Environment Unit 4 History of Biological Diversity Unit 17: Organizing the Diversity of Life-class key.

Kingdoms in Eukarya: Protista, Fungi, Plantae, & Animalia Each Eukarya kingdom has distinguishing characteristics:

1. Construct and use dichotomous keys to identify organisms. 2. Define scientific name and the binomial system of nomenclature.

Classification of Living Things Ch.11 Notes

Chapter 26 Phylogeny and the Tree of Life

Classification Notes

The most widely used biological classification system has six kingdoms within three domains.

Organizing Life on Earth

Biology 2.1 Taxonomy: Domain, Kingdom, Phylum. ICan2Ed.com

Zoology. Classification

Test: Classification of Living Things

Carolus Linnaeus System for Classifying Organisms. Unit 3 Lesson 2

Cladograms. A diagram that shows evolutionary relationships

Classification. copyright cmassengale

Objectives. Classification. Activity. Scientists classify millions of species

HBio Origin of Life and Classification Practice test

Classification of Living Things. Unit II pp 98

The Tree of Life Classification Based on Evolutionary Relationships Modern classification is based on evolutionary relationships.

Chapter 18: Classification

Chapter 17. Organizing Life's Diversity

Biology. Slide 1 of 24. End Show. Copyright Pearson Prentice Hall

Unit. Diversity of Living Things. Big ideas. Chapter 1: Understanding Biodiversity. Chapter 2: The Prokaryotes, Viruses, and Protists

Biology Classification Unit 11. CLASSIFICATION: process of dividing organisms into groups with similar characteristics

Classification. Essential Question Why is it important to place living things into categories?

TAXONOMY. The Science of Classifying Organisms

TAXONOMY. The Science of Classifying Organisms

TAXONOMY. The Science of Classifying Organisms. Chapter 18

Chapter 26 Phylogeny and the Tree of Life

Classification Highlight Packet

PSI Biology Classification Classification

Hierarchies can be represented as trees:

Classification. W hy Clas s if y? (pag e ) A s s ig n in g S c ien tif ic N am es (pag e 4 4 8) Chapter 18. Name Class Date

Chapter 26. Phylogeny and the Tree of Life. Lecture Presentations by Nicole Tunbridge and Kathleen Fitzpatrick Pearson Education, Inc.

Classification Revision Pack (B2)

and just what is science? how about this biology stuff?

Finding Order in Diversity

Learning Outcome B1 13/10/2012. Student Achievement Indicators. Taxonomy: Scientific Classification. Student Achievement Indicators

Prokaryote vs. Eukaryote

Building the Tree of Life

Chapter 17B. Table of Contents. Section 1 Introduction to Kingdoms and Domains. Section 2 Advent of Multicellularity

18-1 Finding Order in Diversity Slide 2 of 26

Classification of Living Things

Biology 3-4 Essential Questions:

Comparing Kingdoms Lab

Classification (aka Taxonomy) Living Environment

Vocabulary Classification the process of arranging organisms into groups based on similarities Taxonomy the science of naming and classifying

There are 5 kingdoms: Animalia multicellular animals, heterotrophic (eat other things), evolved 700,000,000 years ago (1,000,000 2,000,000 species)

Transcription:

Classification Practice Test Modified True/False Indicate whether the statement is true or false. If false, change the identified word or phrase to make the statement true. 1. An organism may have different common names that vary from area to area and language to language. _ 2. Scientists try to organize living things into groups that have economic significance. _ 3. In binomial nomenclature, each species is assigned a two-part scientific name. _ 4. In the name Ursus maritimus, the word Ursus refers to the species. _ 5. Linnaeus s system of classification has seven taxonomic levels. _ 6. An order is a broad taxonomic category composed of similar phyla. _ 7. Modern biologists build classification diagrams called cladograms that reflect lines of evolutionary descent. _ 8. Cladistic analysis considers derived characteristics that have arisen as lineages have evolved over time. _ 9. American vultures are now classified with storks instead of with African vultures because of molecular evidence based on body structure. _ 10. To determine degrees of realtedness among very dissimilar organisms, scientists often analyze their DNA. _ 11. Genetic evidence can sometimes suggest alternative relationships among organisms than suggested by their physical characteristics. _ 12. The six kingdoms of life are Eubacteria, Monera, Protista, Plantae, Fungi, and Animalia. _ 13. The kingdom Monera has been split into the kingdoms Eubacteria and Protista. _ 14. The kingdom Eubacteria contains the same organisms as the domain Animalia. _ 15. One way in which Archaea differ from Bacteria in that the cell walls of Archaea lack peptidoglycan. _ Completion Complete each statement.

16. When scientists use a(an) _ for an organism, they can be certain they are all discussing the same organism. 17. The animals Panthera leo (lion) and tigris (tiger) belong to the same genus. 18. The use of a two-part scientific name for organisms is called nomenclature. 19. In systematics, different classes of organisms might be grouped into a(an), which is the next (larger) Linnaean category. 20. In Linnaeus s system of classification, the two smallest categories are genus and. 21. In systematics, the class Mammalia is grouped with the classes Aves, Reptilia, Amphibia, and all classes of fishes into the Chordata. 22. Traditional classification is based on general similarities and differences among the _ of organisms. 23. In _, groups of organisms were formed on the basis of physical traits rather than evolutionary relationships. 24. Cladistic analysis relies on traits called _ that arise in a common ancestor and are passed on to descendants. 25. DNA analyses show that the of many dissimilar organisms show similarities at the molecular level. 26. In cladistic analysis, similar genes that appear in dissimilar organisms, indicate that they share a common. 27. The six kingdoms of life include bacteria that have cell walls with peptidoglycan, bacteria that have cell walls without peptidoglycan, protists, fungi, animals, and. 28. Unlike the five-kingdom system of classification, the six-kingdom system breaks into two groups. 29. The domain contains plants, fungi, protists, and animals which are all eukaryotes. 30. The domain is composed of the kingdom Eubacteria. Short Answer 31. Why might a particular kind of organism have more than one common name? 32. How do you know that the species Ursus maritimus and Ursus arctos are closely related? 33. How many terms make up the scientific name of a species? How is that name distinguished in print from the common name of a species?

Figure 18 1 34. Look at Figure 18 1. Why are such different animals as fishes, amphibians, reptiles, birds, and mammals grouped into a single phylum? 35. If you know nothing else about an organism except its scientific name, can you immediately determine what genus and family it is in? Explain. 36. What is evolutionary classification? How does it differ from traditional biological classification? Figure 18 2 37. Which grouping in Figure 18 2, A or B, shows the older, traditional, method of classifying the three animals shown? What kind of evidence was used to support that classification? 38. Which system of grouping in Figure 18 2, A or B, provides information about the evolution of the three animals? What is the name of the diagram used to show that information? 39. According to the cladogram in Figure 18 2, what two characteristics do crabs and barnacles share that limpets do not? 40. In Figure 18 2, what does diagram B, which is based on more recent evidence, show about the classification of animals shown in diagram A?

41. How does analysis of DNA help scientists establish an evolutionary classification scheme? 42. What recently developed technology allows scientists to compare the DNA of different kinds of organisms to determine classification? 43. How can DNA help scientists make the classification of similar organisms such as giant pandas and red pandas more accurate? 44. Compare and contrast kingdom Fungi and kingdom Plantae in the six kingdom system. Figure 18 3 45. What characteristic is used to place an organism, such as the amoeba in Figure 18 3, in the domain Eukarya? Essay 46. In what ways is binomial nomenclature more useful than the descriptive names used by early scientists? 47. How does traditional classification differ from evolutionary classification? 48. How does cladistic analysis determine the order in which a set of related species evolved? 49. How is DNA analysis useful for estimating the relationship between two species? 50. How has an increasing knowledge about organisms affected the number of kingdoms now recognized by biologists? Explain.

Classification Practice Test Answer Section MODIFIED TRUE/FALSE 1. ANS: T PTS: 1 DIF: L1 REF: p. 510 OBJ: 18.1.1 Describe the goals of binomial nomenclature and systematics. STA: UT.BIO.5.3.b 2. ANS: F biological scientific PTS: 1 DIF: L2 REF: p. 510 OBJ: 18.1.1 Describe the goals of binomial nomenclature and systematics. STA: UT.BIO.5.3.b 3. ANS: T PTS: 1 DIF: L1 REF: p. 512 STA: UT.BIO.5.3.b UT.BIO.5.3.d 4. ANS: F, genus PTS: 1 DIF: L1 REF: p. 512 STA: UT.BIO.5.3.b UT.BIO.5.3.d 5. ANS: T PTS: 1 DIF: L1 REF: p. 513 STA: UT.BIO.5.3.b UT.BIO.5.3.d 6. ANS: F, families PTS: 1 DIF: L2 REF: p. 513 STA: UT.BIO.5.3.b UT.BIO.5.3.d 7. ANS: T PTS: 1 DIF: L2 REF: p. 516 OBJ: 18.2.2 Describe how to make and interpret a cladogram. 8. ANS: T PTS: 1 DIF: L3 REF: p. 518 OBJ: 18.2.2 Describe how to make and interpret a cladogram. 9. ANS: F DNA DNA analysis

PTS: 1 DIF: L2 REF: p. 521 10. ANS: T PTS: 1 DIF: L1 REF: p. 521 11. ANS: T PTS: 1 DIF: L2 REF: p. 521 12. ANS: F, Archaebacteria PTS: 1 DIF: L2 REF: p. 524 OBJ: 18.3.1 Name the six kingdoms of life as they are currently identified. STA: UT.BIO.5.3.b UT.BIO.5.3.d 13. ANS: F, Archaebacteria PTS: 1 DIF: L2 REF: p. 524 OBJ: 18.3.2 Explain what the tree of life represents. STA: UT.BIO.5.3.b UT.BIO.5.3.c 14. ANS: F, Bacteria PTS: 1 DIF: L2 REF: p. 524 OBJ: 18.3.2 Explain what the tree of life represents. STA: UT.BIO.5.3.b UT.BIO.5.3.c 15. ANS: T PTS: 1 DIF: L3 REF: p. 524 OBJ: 18.3.2 Explain what the tree of life represents. STA: UT.BIO.5.3.b UT.BIO.5.3.c BLM: analysis COMPLETION 16. ANS: scientific name PTS: 1 DIF: L1 REF: p. 510 OBJ: 18.1.1 Describe the goals of binomial nomenclature and systematics. STA: UT.BIO.5.3.b 17. ANS: Panthera PTS: 1 DIF: L2 REF: p. 512 OBJ: 18.1.1 Describe the goals of binomial nomenclature and systematics. STA: UT.BIO.5.3.b 18. ANS: binomial PTS: 1 DIF: L1 REF: p. 512

STA: UT.BIO.5.3.b UT.BIO.5.3.d 19. ANS: phylum PTS: 1 DIF: L2 REF: p. 512 STA: UT.BIO.5.3.b UT.BIO.5.3.d 20. ANS: species PTS: 1 DIF: L1 REF: p. 512 STA: UT.BIO.5.3.b UT.BIO.5.3.d 21. ANS: phylum PTS: 1 DIF: L3 REF: p. 514 STA: UT.BIO.5.3.b UT.BIO.5.3.d 22. ANS: body structures appearances PTS: 1 DIF: L2 REF: p. 516 OBJ: 18.2.1 Explain the difference between evolutionary classification and Linnaean classification STA: UT.BIO.5.3.a UT.BIO.5.3.c UT.BIO.5.3.d 23. ANS: traditional classification Linnaean classification PTS: 1 DIF: L2 REF: p. 512 OBJ: 18.2.1 Explain the difference between evolutionary classification and Linnaean classification STA: UT.BIO.5.3.a UT.BIO.5.3.c UT.BIO.5.3.d 24. ANS: derived characters derived traits PTS: 1 DIF: L2 REF: p. 518 OBJ: 18.2.2 Describe how to make and interpret a cladogram. 25. ANS: genes DNA PTS: 1 DIF: L2 REF: p. 521

26. ANS: ancestor PTS: 1 DIF: L3 REF: p. 521 27. ANS: plants PTS: 1 DIF: L1 REF: p. 524 OBJ: 18.3.1 Name the six kingdoms of life as they are currently identified. STA: UT.BIO.5.3.b UT.BIO.5.3.d 28. ANS: bacteria, monera, or prokaryotes are all acceptable answers PTS: 1 DIF: L2 REF: p. 524 OBJ: 18.3.1 Name the six kingdoms of life as they are currently identified. STA: UT.BIO.5.3.b UT.BIO.5.3.d BLM: analysis 29. ANS: Eukarya PTS: 1 DIF: L1 REF: p. 524 OBJ: 18.3.2 Explain what the tree of life represents. 30. ANS: Bacteria PTS: 1 DIF: L1 REF: p. 524 OBJ: 18.3.2 Explain what the tree of life represents. STA: UT.BIO.5.3.b UT.BIO.5.3.c STA: UT.BIO.5.3.b UT.BIO.5.3.c SHORT ANSWER 31. ANS: The name of an organism is often different in different locations and different languages. PTS: 1 DIF: L2 REF: p. 510 OBJ: 18.1.1 Describe the goals of binomial nomenclature and systematics. STA: UT.BIO.5.3.b 32. ANS: Their scientific names show that they both belong to the same genus. PTS: 1 DIF: L2 REF: p. 512 STA: UT.BIO.5.3.b UT.BIO.5.3.d 33. ANS: A scientific name is composed of two terms that are written in italics, with the first term capitalized. PTS: 1 DIF: L2 REF: p. 512 STA: UT.BIO.5.3.b UT.BIO.5.3.d

34. ANS: Despite their differences, these groups share some common body-plan features, including a nerve cord along the back, indicating a shared evolutionary history. PTS: 1 DIF: L3 REF: p. 513 p. 514 STA: UT.BIO.5.3.b UT.BIO.5.3.d 35. ANS: The scientific name provides the organism s genus in the first of the two words that make up the name, but it does not give information about the organism s family. PTS: 1 DIF: L3 REF: p. 512 p. 513 STA: UT.BIO.5.3.b UT.BIO.5.3.d 36. ANS: Evolutionary classification is grouping organisms by lines of evolutionary descent instead of focusing mainly on similarities of body structure, as in traditional classification. PTS: 1 DIF: L2 REF: p. 516 OBJ: 18.2.1 Explain the difference between evolutionary classification and Linnaean classification STA: UT.BIO.5.3.a UT.BIO.5.3.c UT.BIO.5.3.d BLM: analysis 37. ANS: A; comparisons of body structure similarities PTS: 1 DIF: L3 REF: p. 519 OBJ: 18.2.2 Describe how to make and interpret a cladogram. BLM: evaluation 38. ANS: B; a cladogram PTS: 1 DIF: L2 REF: p. 519 OBJ: 18.2.2 Describe how to make and interpret a cladogram. BLM: analysis 39. ANS: segmentation and a molted external skeleton PTS: 1 DIF: L2 REF: p. 519 OBJ: 18.2.2 Describe how to make and interpret a cladogram. 40. ANS: Diagram B indicates that the traditional taxonomic grouping shown in diagram A classified less closely related groups together based on overall similarities and differences. PTS: 1 DIF: L3 REF: p. 519 p. 520 OBJ: 18.2.2 Describe how to make and interpret a cladogram. BLM: evaluation

41. ANS: DNA comparisons can indicate a common ancestry among different organisms and can also indicate how long they have been evolving separately. PTS: 1 DIF: L3 REF: p. 521 42. ANS: the ability to sequence or read and compare the information coded in the DNA of different organisms PTS: 1 DIF: L3 REF: p. 521 43. ANS: DNA analysis can supply further evidence of relatedness. In general, the more derived genetic characters two organisms share, the more closely related they are. PTS: 1 DIF: L3 REF: p. 498 p. 522 44. ANS: Both fungi and plants are eukaryotes, meaning that their cells have nuclei. Most fungi and plants are multicellular. All fungi are heterotrophs; all plants are autotrophs. Fungi have cell walls made of chitin; plants have cell walls made of cellulose. PTS: 1 DIF: L2 REF: p. 524 OBJ: 18.3.1 Name the six kingdoms of life as they are currently identified. STA: UT.BIO.5.3.b UT.BIO.5.3.d 45. ANS: the presence of a nucleus in its cell(s) PTS: 1 DIF: L1 REF: p. 526 OBJ: 18.3.2 Explain what the tree of life represents. STA: UT.BIO.5.3.b UT.BIO.5.3.c ESSAY 46. ANS: Earlier descriptive scientific names were very long, and they were not standardized among all scientists. Binomial names are brief and standardized. Further, each name refers to a single organism. PTS: 1 DIF: L3 REF: p. 510 p. 512 STA: UT.BIO.5.3.b UT.BIO.5.3.d 47. ANS:

Traditional classification places organisms into categories based mainly upon similarities and differences of body structure. Evolutionary classification, on the other hand, places organisms into categories that represent lines of evolutionary descent rather than just physical similarities. PTS: 1 DIF: L2 REF: p. 514 p. 516 OBJ: 18.2.1 Explain the difference between evolutionary classification and Linnaean classification STA: UT.BIO.5.3.a UT.BIO.5.3.c UT.BIO.5.3.d BLM: analysis 48. ANS: Cladistic analysis considers derived characters, which are traits passed to the descendants of a common ancestor. If a specific derived character is present in one species but absent in another species, biologists infer that the species possessing the character evolved second. PTS: 1 DIF: L3 REF: p. 518 OBJ: 18.2.2 Describe how to make and interpret a cladogram. 49. ANS: A comparison of DNA sequences in two species can indicate their evolutionary relationship and make their evolutionary tree more accurate. DNA analysis examines the base sequences in genes. The DNA sequences of genes in two closely related species will be more similar than in two species that are not closely related. For example, the two kinds of camels will have DNA that is more similar than a camel and a stork. PTS: 1 DIF: L2 REF: p. 521 50. ANS: As biologists learned more about the natural world, they realized that Linnaeus s two kingdoms, Animalia and Plantae, did not adequately represent the full diversity of life. As a result, the original two kingdoms have today become six kingdoms, with two of those groups used just for classifying bacteria unknown in Linnaeus s time! PTS: 1 DIF: L3 REF: p. 523 OBJ: 18.3.1 Name the six kingdoms of life as they are currently identified. STA: UT.BIO.5.3.b UT.BIO.5.3.d