MAPPING THE WORLD Quiz
The question sheet
Reveal any answer as you study-
For roughly how long have humans used maps?
- Only since GPS was invented
- Since about 1,000 B.C.
- Since before 6,000 B.C.
- Since the year 1 A.D.
Reveal answer
Answer: Since before 6,000 B.C.
Source evidence
PDF page 12: Maps are fundamental to the discipline of geography and have been used by humans since before 6,000 B.C. Today’s maps are much more sophisticated, complex, and precise, and are used by many people who employ GPS mapping systems in their vehicles. This technology allows motorists to navigate from placeto-place with relative ease, but the process by which these digital and other maps are created is exceptionally complex. Essentially, a map, which is a flat presentation of a place on Earth, is actually depicting a curved surface. The Earth, which looks like a sphere, is technically an oblate spheroid, which means that the “middle” of the Earth, around the equator, is slightly wider, and the north/south pole axis is slightly shorter, than a perfect sphere. When any curved surface is depicted on a flat surface, that process is known as projection, and many types of map projections exist. A fundamental characteristic of all maps is they involves projections, and all projections have some sort of distortion inherent in them. The size, shape, distance, and direction of objects are distorted to various degrees on maps. The reason this distortion occurs can be visualized by simply imagining peeling an orange, and trying to flatten the
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What is a map defined as in the source?
- A three-dimensional globe model
- A digital GPS-only image
- A flat presentation of a place on Earth
- A curved surface with no distortion
Reveal answer
Answer: A flat presentation of a place on Earth
Source evidence
PDF page 12: Maps are fundamental to the discipline of geography and have been used by humans since before 6,000 B.C. Today’s maps are much more sophisticated, complex, and precise, and are used by many people who employ GPS mapping systems in their vehicles. This technology allows motorists to navigate from placeto-place with relative ease, but the process by which these digital and other maps are created is exceptionally complex. Essentially, a map, which is a flat presentation of a place on Earth, is actually depicting a curved surface. The Earth, which looks like a sphere, is technically an oblate spheroid, which means that the “middle” of the Earth, around the equator, is slightly wider, and the north/south pole axis is slightly shorter, than a perfect sphere. When any curved surface is depicted on a flat surface, that process is known as projection, and many types of map projections exist. A fundamental characteristic of all maps is they involves projections, and all projections have some sort of distortion inherent in them. The size, shape, distance, and direction of objects are distorted to various degrees on maps. The reason this distortion occurs can be visualized by simply imagining peeling an orange, and trying to flatten the
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The Earth is technically described as what shape?
- An oblate spheroid
- A cube
- A flat disc
- A perfect sphere
Reveal answer
Answer: An oblate spheroid
Source evidence
PDF page 12: Maps are fundamental to the discipline of geography and have been used by humans since before 6,000 B.C. Today’s maps are much more sophisticated, complex, and precise, and are used by many people who employ GPS mapping systems in their vehicles. This technology allows motorists to navigate from placeto-place with relative ease, but the process by which these digital and other maps are created is exceptionally complex. Essentially, a map, which is a flat presentation of a place on Earth, is actually depicting a curved surface. The Earth, which looks like a sphere, is technically an oblate spheroid, which means that the “middle” of the Earth, around the equator, is slightly wider, and the north/south pole axis is slightly shorter, than a perfect sphere. When any curved surface is depicted on a flat surface, that process is known as projection, and many types of map projections exist. A fundamental characteristic of all maps is they involves projections, and all projections have some sort of distortion inherent in them. The size, shape, distance, and direction of objects are distorted to various degrees on maps. The reason this distortion occurs can be visualized by simply imagining peeling an orange, and trying to flatten the
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On an oblate spheroid, the middle around the equator is:
- Missing entirely
- Slightly narrower than a sphere
- Exactly like a sphere
- Slightly wider than a sphere
Reveal answer
Answer: Slightly wider than a sphere
Source evidence
PDF page 12: Maps are fundamental to the discipline of geography and have been used by humans since before 6,000 B.C. Today’s maps are much more sophisticated, complex, and precise, and are used by many people who employ GPS mapping systems in their vehicles. This technology allows motorists to navigate from placeto-place with relative ease, but the process by which these digital and other maps are created is exceptionally complex. Essentially, a map, which is a flat presentation of a place on Earth, is actually depicting a curved surface. The Earth, which looks like a sphere, is technically an oblate spheroid, which means that the “middle” of the Earth, around the equator, is slightly wider, and the north/south pole axis is slightly shorter, than a perfect sphere. When any curved surface is depicted on a flat surface, that process is known as projection, and many types of map projections exist. A fundamental characteristic of all maps is they involves projections, and all projections have some sort of distortion inherent in them. The size, shape, distance, and direction of objects are distorted to various degrees on maps. The reason this distortion occurs can be visualized by simply imagining peeling an orange, and trying to flatten the
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What is the process of depicting a curved surface on a flat surface called?
- Projection
- Distortion
- Navigation
- Scaling
Reveal answer
Answer: Projection
Source evidence
PDF page 12: Maps are fundamental to the discipline of geography and have been used by humans since before 6,000 B.C. Today’s maps are much more sophisticated, complex, and precise, and are used by many people who employ GPS mapping systems in their vehicles. This technology allows motorists to navigate from placeto-place with relative ease, but the process by which these digital and other maps are created is exceptionally complex. Essentially, a map, which is a flat presentation of a place on Earth, is actually depicting a curved surface. The Earth, which looks like a sphere, is technically an oblate spheroid, which means that the “middle” of the Earth, around the equator, is slightly wider, and the north/south pole axis is slightly shorter, than a perfect sphere. When any curved surface is depicted on a flat surface, that process is known as projection, and many types of map projections exist. A fundamental characteristic of all maps is they involves projections, and all projections have some sort of distortion inherent in them. The size, shape, distance, and direction of objects are distorted to various degrees on maps. The reason this distortion occurs can be visualized by simply imagining peeling an orange, and trying to flatten the
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According to the source, all projections have some inherent:
- Distortion
- Perfect accuracy
- GPS coding
- Bar graphs
Reveal answer
Answer: Distortion
Source evidence
PDF page 12: Maps are fundamental to the discipline of geography and have been used by humans since before 6,000 B.C. Today’s maps are much more sophisticated, complex, and precise, and are used by many people who employ GPS mapping systems in their vehicles. This technology allows motorists to navigate from placeto-place with relative ease, but the process by which these digital and other maps are created is exceptionally complex. Essentially, a map, which is a flat presentation of a place on Earth, is actually depicting a curved surface. The Earth, which looks like a sphere, is technically an oblate spheroid, which means that the “middle” of the Earth, around the equator, is slightly wider, and the north/south pole axis is slightly shorter, than a perfect sphere. When any curved surface is depicted on a flat surface, that process is known as projection, and many types of map projections exist. A fundamental characteristic of all maps is they involves projections, and all projections have some sort of distortion inherent in them. The size, shape, distance, and direction of objects are distorted to various degrees on maps. The reason this distortion occurs can be visualized by simply imagining peeling an orange, and trying to flatten the
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Which properties are distorted to various degrees on maps?
- Only color and texture
- Only the equator
- Only latitude lines
- Size, shape, distance, and direction
Reveal answer
Answer: Size, shape, distance, and direction
Source evidence
PDF page 12: Maps are fundamental to the discipline of geography and have been used by humans since before 6,000 B.C. Today’s maps are much more sophisticated, complex, and precise, and are used by many people who employ GPS mapping systems in their vehicles. This technology allows motorists to navigate from placeto-place with relative ease, but the process by which these digital and other maps are created is exceptionally complex. Essentially, a map, which is a flat presentation of a place on Earth, is actually depicting a curved surface. The Earth, which looks like a sphere, is technically an oblate spheroid, which means that the “middle” of the Earth, around the equator, is slightly wider, and the north/south pole axis is slightly shorter, than a perfect sphere. When any curved surface is depicted on a flat surface, that process is known as projection, and many types of map projections exist. A fundamental characteristic of all maps is they involves projections, and all projections have some sort of distortion inherent in them. The size, shape, distance, and direction of objects are distorted to various degrees on maps. The reason this distortion occurs can be visualized by simply imagining peeling an orange, and trying to flatten the
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On the Mercator projection, Greenland appears:
- Off the map entirely
- Smaller than an island
- Larger than South America
- Exactly its true size
Reveal answer
Answer: Larger than South America
Source evidence
PDF page 13: peel on a table. If you drew the continents on that orange before peeling it, the continents would most certainly be distorted when you try to flatten the peel on the table. This analogy does not precisely describe how projections are created; the process is much more involved. However, the underlying principle still applies. An example of distortion is shown on the map of the globe below (Figure 1.2). Note, for example, in this Mercator projection that Greenland appears to be larger than South America, although it is, in fact, much smaller. Besides projections, another important characteristic of maps is the scale. The scale of a map is a ratio of the length or distance on the map versus the length or distance on the Earth or ground (actual). The amount of detail shown on a map will vary based on the scale. For example, a map with a scale of 1:100,000 (which means 1 in/cm on the map equals 1,000,000 in/cm on the ground) would show much less detail than a map at a scale of 1:10,000 (Figure 1.3). Besides showing scale as a ratio, it can also be presented as a bar graph or as a verbal statement. Scale can also mean the spatial extent of some kind of phenomena. For example, one could examine migration at the global, national, state, or local scale. By either definition, however, each refers to the level of detail about the place that the geographer is researching. Examining the world from different scales enables different patterns and connections to emerge.
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In reality, Greenland compared to South America is:
- Much smaller
- Exactly the same size
- Not comparable
- Much larger
Reveal answer
Answer: Much smaller
Source evidence
PDF page 13: peel on a table. If you drew the continents on that orange before peeling it, the continents would most certainly be distorted when you try to flatten the peel on the table. This analogy does not precisely describe how projections are created; the process is much more involved. However, the underlying principle still applies. An example of distortion is shown on the map of the globe below (Figure 1.2). Note, for example, in this Mercator projection that Greenland appears to be larger than South America, although it is, in fact, much smaller. Besides projections, another important characteristic of maps is the scale. The scale of a map is a ratio of the length or distance on the map versus the length or distance on the Earth or ground (actual). The amount of detail shown on a map will vary based on the scale. For example, a map with a scale of 1:100,000 (which means 1 in/cm on the map equals 1,000,000 in/cm on the ground) would show much less detail than a map at a scale of 1:10,000 (Figure 1.3). Besides showing scale as a ratio, it can also be presented as a bar graph or as a verbal statement. Scale can also mean the spatial extent of some kind of phenomena. For example, one could examine migration at the global, national, state, or local scale. By either definition, however, each refers to the level of detail about the place that the geographer is researching. Examining the world from different scales enables different patterns and connections to emerge.
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Which projection is used in the World Map figure of the source?
- Mercator projection
- Conic projection
- Peters projection
- Robinson projection
Reveal answer
Answer: Mercator projection
Source evidence
PDF page 12: World Map with Mercator Projection. Author | User “Strebe” Source | Wikimedia Commons License | CC BY-SA 3.0
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A map at a scale of 1:100,000 compared to 1:10,000 shows:
- Much more detail
- Exactly the same detail
- Much less detail
- No area at all
Reveal answer
Answer: Much less detail
Source evidence
PDF page 13: peel on a table. If you drew the continents on that orange before peeling it, the continents would most certainly be distorted when you try to flatten the peel on the table. This analogy does not precisely describe how projections are created; the process is much more involved. However, the underlying principle still applies. An example of distortion is shown on the map of the globe below (Figure 1.2). Note, for example, in this Mercator projection that Greenland appears to be larger than South America, although it is, in fact, much smaller. Besides projections, another important characteristic of maps is the scale. The scale of a map is a ratio of the length or distance on the map versus the length or distance on the Earth or ground (actual). The amount of detail shown on a map will vary based on the scale. For example, a map with a scale of 1:100,000 (which means 1 in/cm on the map equals 1,000,000 in/cm on the ground) would show much less detail than a map at a scale of 1:10,000 (Figure 1.3). Besides showing scale as a ratio, it can also be presented as a bar graph or as a verbal statement. Scale can also mean the spatial extent of some kind of phenomena. For example, one could examine migration at the global, national, state, or local scale. By either definition, however, each refers to the level of detail about the place that the geographer is researching. Examining the world from different scales enables different patterns and connections to emerge.
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According to the source, a small scale map shows:
- A tiny area only
- A larger area
- A single building
- No area
Reveal answer
Answer: A larger area
Source evidence
PDF page 13: The map on the left is a small scale map, showing a larger area. The map on the right is a large scale map, showing a smaller area. Author | Corey Parson, Google Maps Source | Google Maps License | © Google Maps. Used with Permission.
Introduction to Human Geography
Introduction to Human Geography by the University System of Georgia, used under CC BY 4.0. Changes made by Stratacademy.
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