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DQ_003760 | What is the minimum number of leaves on a petiole? | question_images/parts_leaf_3979.png | a. 2, b. 4, c. 0, d. 1 | d | DQ_003758 | image | question_images/parts_leaf_3979.png | parts_leaf_3979.png | 1 |
DQ_003760 | What is the minimum number of leaves on a petiole? | question_images/parts_leaf_3979.png | a. 2, b. 4, c. 0, d. 1 | d | DQ_003629 | image | question_images/parts_leaf_1123.png | parts_leaf_1123.png | 0.843356 |
DQ_003760 | What is the minimum number of leaves on a petiole? | question_images/parts_leaf_3979.png | a. 2, b. 4, c. 0, d. 1 | d | DQ_003608 | image | question_images/parts_leaf_1119.png | parts_leaf_1119.png | 0.832562 |
DQ_003760 | What is the minimum number of leaves on a petiole? | question_images/parts_leaf_3979.png | a. 2, b. 4, c. 0, d. 1 | d | DQ_003588 | image | question_images/parts_leaf_1115.png | parts_leaf_1115.png | 0.803241 |
DQ_003760 | What is the minimum number of leaves on a petiole? | question_images/parts_leaf_3979.png | a. 2, b. 4, c. 0, d. 1 | d | DQ_003788 | image | question_images/parts_leaf_6262.png | parts_leaf_6262.png | 0.778996 |
DQ_003760 | What is the minimum number of leaves on a petiole? | question_images/parts_leaf_3979.png | a. 2, b. 4, c. 0, d. 1 | d | DQ_003554 | image | question_images/parts_leaf_1096.png | parts_leaf_1096.png | 0.776636 |
DQ_003760 | What is the minimum number of leaves on a petiole? | question_images/parts_leaf_3979.png | a. 2, b. 4, c. 0, d. 1 | d | DQ_003922 | image | question_images/parts_plant_3225.png | parts_plant_3225.png | 0.77533 |
DQ_003760 | What is the minimum number of leaves on a petiole? | question_images/parts_leaf_3979.png | a. 2, b. 4, c. 0, d. 1 | d | DQ_003663 | image | question_images/parts_leaf_3132.png | parts_leaf_3132.png | 0.753455 |
DQ_003760 | What is the minimum number of leaves on a petiole? | question_images/parts_leaf_3979.png | a. 2, b. 4, c. 0, d. 1 | d | DQ_003716 | image | question_images/parts_leaf_3149.png | parts_leaf_3149.png | 0.752664 |
DQ_003760 | What is the minimum number of leaves on a petiole? | question_images/parts_leaf_3979.png | a. 2, b. 4, c. 0, d. 1 | d | DQ_003707 | image | question_images/parts_leaf_3144.png | parts_leaf_3144.png | 0.747056 |
DQ_003760 | What is the minimum number of leaves on a petiole? | question_images/parts_leaf_3979.png | a. 2, b. 4, c. 0, d. 1 | d | T_1598 | text | null | Plants and animals depend on water to live. They also play a role in the water cycle. Plants take up water from the soil and release large amounts of water vapor into the air through their leaves (Figure 1.3), a process known as transpiration. | 0.5039 |
DQ_003760 | What is the minimum number of leaves on a petiole? | question_images/parts_leaf_3979.png | a. 2, b. 4, c. 0, d. 1 | d | T_1950 | text | null | The most basic division of modern plants is between nonvascular and vascular plants. Vascular plants are further divided into those that reproduce without seeds and those that reproduce with seeds. Seed plants, in turn, are divided into those that produce naked seeds in cones and those that produce seeds in the ovaries of flowers. | 0.496946 |
DQ_003760 | What is the minimum number of leaves on a petiole? | question_images/parts_leaf_3979.png | a. 2, b. 4, c. 0, d. 1 | d | T_1312 | text | null | In photosynthesis, plants use CO2 and create O2 . Photosynthesis is responsible for nearly all of the oxygen currently found in the atmosphere. The chemical reaction for photosynthesis is: 6CO2 + 6H2 O + solar energy C6 H12 O6 (sugar) + 6O2 | 0.49164 |
DQ_003760 | What is the minimum number of leaves on a petiole? | question_images/parts_leaf_3979.png | a. 2, b. 4, c. 0, d. 1 | d | T_3385 | text | null | Plants seem to grow wherever they can. How? Plants cant move on their own. So how does a plant start growing in a new area? | 0.483288 |
DQ_003760 | What is the minimum number of leaves on a petiole? | question_images/parts_leaf_3979.png | a. 2, b. 4, c. 0, d. 1 | d | T_3278 | text | null | What does population growth mean? You can probably guess that it means the number of individuals in a population is increasing. The population growth rate tells you how quickly a population is increasing or decreasing. What determines the population growth rate for a particular population? | 0.470159 |
DQ_003760 | What is the minimum number of leaves on a petiole? | question_images/parts_leaf_3979.png | a. 2, b. 4, c. 0, d. 1 | d | T_1698 | text | null | How well soil forms and what type of soil forms depends on several different factors, which are described below. | 0.469159 |
DQ_003760 | What is the minimum number of leaves on a petiole? | question_images/parts_leaf_3979.png | a. 2, b. 4, c. 0, d. 1 | d | T_3260 | text | null | Why do leaves change color each fall? This MIT video demonstrates an experiment about the different pigments in leaves. See the video at . Click image to the left or use the URL below. URL: | 0.465534 |
DQ_003760 | What is the minimum number of leaves on a petiole? | question_images/parts_leaf_3979.png | a. 2, b. 4, c. 0, d. 1 | d | T_1106 | text | null | Despite these problems, there is a rich fossil record. How does an organism become fossilized? | 0.464261 |
DQ_003760 | What is the minimum number of leaves on a petiole? | question_images/parts_leaf_3979.png | a. 2, b. 4, c. 0, d. 1 | d | T_3434 | text | null | Water also moves through the living organisms in an ecosystem. Plants soak up large amounts of water through their roots. The water then moves up the plant and evaporates from the leaves in a process called transpiration. The process of transpiration, like evaporation, returns water back into the atmosphere. | 0.464203 |
DQ_003760 | What is the minimum number of leaves on a petiole? | question_images/parts_leaf_3979.png | a. 2, b. 4, c. 0, d. 1 | d | T_1805 | text | null | Some fossils form when their remains are compressed by high pressure, leaving behind a dark imprint. Compression is most common for fossils of leaves and ferns, but can occur with other organisms. Click image to the left or use the URL below. URL: Click image to the left or use the URL below. URL: | 0.464124 |
DQ_003761 | What connects the midrib to the stem? | question_images/parts_leaf_3979.png | a. bud, b. leaf, c. petiole, d. blade | c | DQ_003758 | image | question_images/parts_leaf_3979.png | parts_leaf_3979.png | 1 |
DQ_003761 | What connects the midrib to the stem? | question_images/parts_leaf_3979.png | a. bud, b. leaf, c. petiole, d. blade | c | DQ_003629 | image | question_images/parts_leaf_1123.png | parts_leaf_1123.png | 0.843356 |
DQ_003761 | What connects the midrib to the stem? | question_images/parts_leaf_3979.png | a. bud, b. leaf, c. petiole, d. blade | c | DQ_003608 | image | question_images/parts_leaf_1119.png | parts_leaf_1119.png | 0.832562 |
DQ_003761 | What connects the midrib to the stem? | question_images/parts_leaf_3979.png | a. bud, b. leaf, c. petiole, d. blade | c | DQ_003588 | image | question_images/parts_leaf_1115.png | parts_leaf_1115.png | 0.803241 |
DQ_003761 | What connects the midrib to the stem? | question_images/parts_leaf_3979.png | a. bud, b. leaf, c. petiole, d. blade | c | DQ_003788 | image | question_images/parts_leaf_6262.png | parts_leaf_6262.png | 0.778996 |
DQ_003761 | What connects the midrib to the stem? | question_images/parts_leaf_3979.png | a. bud, b. leaf, c. petiole, d. blade | c | DQ_003554 | image | question_images/parts_leaf_1096.png | parts_leaf_1096.png | 0.776636 |
DQ_003761 | What connects the midrib to the stem? | question_images/parts_leaf_3979.png | a. bud, b. leaf, c. petiole, d. blade | c | DQ_003922 | image | question_images/parts_plant_3225.png | parts_plant_3225.png | 0.77533 |
DQ_003761 | What connects the midrib to the stem? | question_images/parts_leaf_3979.png | a. bud, b. leaf, c. petiole, d. blade | c | DQ_003663 | image | question_images/parts_leaf_3132.png | parts_leaf_3132.png | 0.753455 |
DQ_003761 | What connects the midrib to the stem? | question_images/parts_leaf_3979.png | a. bud, b. leaf, c. petiole, d. blade | c | DQ_003716 | image | question_images/parts_leaf_3149.png | parts_leaf_3149.png | 0.752664 |
DQ_003761 | What connects the midrib to the stem? | question_images/parts_leaf_3979.png | a. bud, b. leaf, c. petiole, d. blade | c | DQ_003707 | image | question_images/parts_leaf_3144.png | parts_leaf_3144.png | 0.747056 |
DQ_003761 | What connects the midrib to the stem? | question_images/parts_leaf_3979.png | a. bud, b. leaf, c. petiole, d. blade | c | T_2534 | text | null | Both types of reproduction have certain advantages. | 0.452509 |
DQ_003761 | What connects the midrib to the stem? | question_images/parts_leaf_3979.png | a. bud, b. leaf, c. petiole, d. blade | c | T_0116 | text | null | Every organism is different from every other organism. Every organisms genes are different, too. | 0.449751 |
DQ_003761 | What connects the midrib to the stem? | question_images/parts_leaf_3979.png | a. bud, b. leaf, c. petiole, d. blade | c | T_1106 | text | null | Despite these problems, there is a rich fossil record. How does an organism become fossilized? | 0.448292 |
DQ_003761 | What connects the midrib to the stem? | question_images/parts_leaf_3979.png | a. bud, b. leaf, c. petiole, d. blade | c | T_2380 | text | null | Symbiosis is a close relationship between two species in which at least one species benefits. For the other species, the relationship may be beneficial, harmful, or neutral. There are three types of symbiosis: mutualism, parasitism, and commensalism. | 0.440577 |
DQ_003761 | What connects the midrib to the stem? | question_images/parts_leaf_3979.png | a. bud, b. leaf, c. petiole, d. blade | c | T_3234 | text | null | Your heart pumps blood around your body. But how does your heart get blood to and from every cell in your body? Your heart is connected to blood vessels such as veins and arteries. Organs that work together form an organ system. Together, your heart, blood, and blood vessels form your cardiovascular system. What other organ systems can you think of? | 0.439916 |
DQ_003761 | What connects the midrib to the stem? | question_images/parts_leaf_3979.png | a. bud, b. leaf, c. petiole, d. blade | c | T_3409 | text | null | Even though two different species may not look similar, they may have similar internal structures that suggest they have a common ancestor. That means both evolved from the same ancestor organism a long time ago. Common ancestry can also be determined by looking at the structure of the organism as it first develops. | 0.437418 |
DQ_003761 | What connects the midrib to the stem? | question_images/parts_leaf_3979.png | a. bud, b. leaf, c. petiole, d. blade | c | T_2385 | text | null | Two important concepts associated with the ecosystem are niche and habitat. | 0.436052 |
DQ_003761 | What connects the midrib to the stem? | question_images/parts_leaf_3979.png | a. bud, b. leaf, c. petiole, d. blade | c | T_4202 | text | null | Carbon is a very common ingredient of matter because it can combine with itself and with many other elements. It can form a great diversity of compounds, ranging in size from just a few atoms to thousands of atoms. There are millions of known carbon compounds, and carbon is the only element that can form so many different compounds. | 0.435601 |
DQ_003761 | What connects the midrib to the stem? | question_images/parts_leaf_3979.png | a. bud, b. leaf, c. petiole, d. blade | c | T_0638 | text | null | To understand minerals, we must first understand matter. Matter is the substance that physical objects are made of. | 0.434546 |
DQ_003761 | What connects the midrib to the stem? | question_images/parts_leaf_3979.png | a. bud, b. leaf, c. petiole, d. blade | c | T_3385 | text | null | Plants seem to grow wherever they can. How? Plants cant move on their own. So how does a plant start growing in a new area? | 0.43102 |
DQ_003762 | Where does carbon dioxide enter and exits? | question_images/parts_leaf_556.png | a. vein, b. palisade mesophyll, c. epidermis, d. stomata | d | DQ_003762 | image | question_images/parts_leaf_556.png | parts_leaf_556.png | 1 |
DQ_003762 | Where does carbon dioxide enter and exits? | question_images/parts_leaf_556.png | a. vein, b. palisade mesophyll, c. epidermis, d. stomata | d | DQ_003337 | image | abc_question_images/parts_leaf_11117.png | parts_leaf_11117.png | 0.851202 |
DQ_003762 | Where does carbon dioxide enter and exits? | question_images/parts_leaf_556.png | a. vein, b. palisade mesophyll, c. epidermis, d. stomata | d | DQ_003601 | image | question_images/parts_leaf_1117.png | parts_leaf_1117.png | 0.850562 |
DQ_003762 | Where does carbon dioxide enter and exits? | question_images/parts_leaf_556.png | a. vein, b. palisade mesophyll, c. epidermis, d. stomata | d | DQ_003698 | image | question_images/parts_leaf_3139.png | parts_leaf_3139.png | 0.842751 |
DQ_003762 | Where does carbon dioxide enter and exits? | question_images/parts_leaf_556.png | a. vein, b. palisade mesophyll, c. epidermis, d. stomata | d | DQ_003684 | image | question_images/parts_leaf_3137.png | parts_leaf_3137.png | 0.831379 |
DQ_003762 | Where does carbon dioxide enter and exits? | question_images/parts_leaf_556.png | a. vein, b. palisade mesophyll, c. epidermis, d. stomata | d | DQ_003363 | image | abc_question_images/parts_leaf_13137.png | parts_leaf_13137.png | 0.831379 |
DQ_003762 | Where does carbon dioxide enter and exits? | question_images/parts_leaf_556.png | a. vein, b. palisade mesophyll, c. epidermis, d. stomata | d | DQ_003359 | image | abc_question_images/parts_leaf_13134.png | parts_leaf_13134.png | 0.825606 |
DQ_003762 | Where does carbon dioxide enter and exits? | question_images/parts_leaf_556.png | a. vein, b. palisade mesophyll, c. epidermis, d. stomata | d | DQ_003372 | image | abc_question_images/parts_leaf_13853.png | parts_leaf_13853.png | 0.825388 |
DQ_003762 | Where does carbon dioxide enter and exits? | question_images/parts_leaf_556.png | a. vein, b. palisade mesophyll, c. epidermis, d. stomata | d | DQ_003742 | image | question_images/parts_leaf_3855.png | parts_leaf_3855.png | 0.814715 |
DQ_003762 | Where does carbon dioxide enter and exits? | question_images/parts_leaf_556.png | a. vein, b. palisade mesophyll, c. epidermis, d. stomata | d | DQ_003735 | image | question_images/parts_leaf_3853.png | parts_leaf_3853.png | 0.814642 |
DQ_003762 | Where does carbon dioxide enter and exits? | question_images/parts_leaf_556.png | a. vein, b. palisade mesophyll, c. epidermis, d. stomata | d | T_0966 | text | null | Why is such a small amount of carbon dioxide in the atmosphere even important? Carbon dioxide is a greenhouse gas. Greenhouse gases trap heat energy that would otherwise radiate out into space, which warms Earth. These gases were discussed in the chapter Atmospheric Processes. | 0.734327 |
DQ_003762 | Where does carbon dioxide enter and exits? | question_images/parts_leaf_556.png | a. vein, b. palisade mesophyll, c. epidermis, d. stomata | d | T_0959 | text | null | The short term cycling of carbon begins with carbon dioxide (CO2 ) in the atmosphere. | 0.720134 |
DQ_003762 | Where does carbon dioxide enter and exits? | question_images/parts_leaf_556.png | a. vein, b. palisade mesophyll, c. epidermis, d. stomata | d | T_1048 | text | null | Before we develop some hypotheses, lets find a new question that we want to answer. What we just learned that atmospheric CO2 has been increasing at least since 1958. This leads us to ask this question: Why is atmospheric CO2 increasing? | 0.697692 |
DQ_003762 | Where does carbon dioxide enter and exits? | question_images/parts_leaf_556.png | a. vein, b. palisade mesophyll, c. epidermis, d. stomata | d | T_1030 | text | null | Remember that greenhouse gases trap heat in the atmosphere. Important natural greenhouse gases include carbon dioxide, methane, water vapor, and ozone. CFCs and some other man-made compounds are also greenhouse gases. | 0.650975 |
DQ_003762 | Where does carbon dioxide enter and exits? | question_images/parts_leaf_556.png | a. vein, b. palisade mesophyll, c. epidermis, d. stomata | d | T_1050 | text | null | Atmospheric CO2 has increased over the past five decades, because the amount of CO2 gas released by volcanoes has increased. | 0.645633 |
DQ_003762 | Where does carbon dioxide enter and exits? | question_images/parts_leaf_556.png | a. vein, b. palisade mesophyll, c. epidermis, d. stomata | d | T_1797 | text | null | The two types of air pollutants are primary pollutants, which enter the atmosphere directly, and secondary pollutants, which form from a chemical reaction. | 0.645498 |
DQ_003762 | Where does carbon dioxide enter and exits? | question_images/parts_leaf_556.png | a. vein, b. palisade mesophyll, c. epidermis, d. stomata | d | T_1311 | text | null | Without the atmosphere, Earth would look a lot more like the Moon. Atmospheric gases, especially carbon dioxide (CO2 ) and oxygen (O2 ), are extremely important for living organisms. How does the atmosphere make life possible? How does life alter the atmosphere? The composition of Earths atmosphere. | 0.644857 |
DQ_003762 | Where does carbon dioxide enter and exits? | question_images/parts_leaf_556.png | a. vein, b. palisade mesophyll, c. epidermis, d. stomata | d | T_4202 | text | null | Carbon is a very common ingredient of matter because it can combine with itself and with many other elements. It can form a great diversity of compounds, ranging in size from just a few atoms to thousands of atoms. There are millions of known carbon compounds, and carbon is the only element that can form so many different compounds. | 0.637657 |
DQ_003762 | Where does carbon dioxide enter and exits? | question_images/parts_leaf_556.png | a. vein, b. palisade mesophyll, c. epidermis, d. stomata | d | T_1129 | text | null | Human health suffers in locations with high levels of air pollution. | 0.636637 |
DQ_003762 | Where does carbon dioxide enter and exits? | question_images/parts_leaf_556.png | a. vein, b. palisade mesophyll, c. epidermis, d. stomata | d | T_1661 | text | null | So weve answered the question using data from research that has already been done. If scientists had not been monitoring CO2 levels over the years, wed have had to start these measurements now. Because this question can be answered with data, it is testable. Click image to the left or use the URL below. URL: | 0.636248 |
DQ_003763 | From the diagram, identify the part of the plant which allows movement of gases in and out. | question_images/parts_leaf_556.png | a. epidermis, b. stoma, c. palisade mesophyll, d. spongy mesophyll | b | DQ_003762 | image | question_images/parts_leaf_556.png | parts_leaf_556.png | 1 |
DQ_003763 | From the diagram, identify the part of the plant which allows movement of gases in and out. | question_images/parts_leaf_556.png | a. epidermis, b. stoma, c. palisade mesophyll, d. spongy mesophyll | b | DQ_003337 | image | abc_question_images/parts_leaf_11117.png | parts_leaf_11117.png | 0.851202 |
DQ_003763 | From the diagram, identify the part of the plant which allows movement of gases in and out. | question_images/parts_leaf_556.png | a. epidermis, b. stoma, c. palisade mesophyll, d. spongy mesophyll | b | DQ_003601 | image | question_images/parts_leaf_1117.png | parts_leaf_1117.png | 0.850562 |
DQ_003763 | From the diagram, identify the part of the plant which allows movement of gases in and out. | question_images/parts_leaf_556.png | a. epidermis, b. stoma, c. palisade mesophyll, d. spongy mesophyll | b | DQ_003698 | image | question_images/parts_leaf_3139.png | parts_leaf_3139.png | 0.842751 |
DQ_003763 | From the diagram, identify the part of the plant which allows movement of gases in and out. | question_images/parts_leaf_556.png | a. epidermis, b. stoma, c. palisade mesophyll, d. spongy mesophyll | b | DQ_003684 | image | question_images/parts_leaf_3137.png | parts_leaf_3137.png | 0.831379 |
DQ_003763 | From the diagram, identify the part of the plant which allows movement of gases in and out. | question_images/parts_leaf_556.png | a. epidermis, b. stoma, c. palisade mesophyll, d. spongy mesophyll | b | DQ_003363 | image | abc_question_images/parts_leaf_13137.png | parts_leaf_13137.png | 0.831379 |
DQ_003763 | From the diagram, identify the part of the plant which allows movement of gases in and out. | question_images/parts_leaf_556.png | a. epidermis, b. stoma, c. palisade mesophyll, d. spongy mesophyll | b | DQ_003359 | image | abc_question_images/parts_leaf_13134.png | parts_leaf_13134.png | 0.825606 |
DQ_003763 | From the diagram, identify the part of the plant which allows movement of gases in and out. | question_images/parts_leaf_556.png | a. epidermis, b. stoma, c. palisade mesophyll, d. spongy mesophyll | b | DQ_003372 | image | abc_question_images/parts_leaf_13853.png | parts_leaf_13853.png | 0.825388 |
DQ_003763 | From the diagram, identify the part of the plant which allows movement of gases in and out. | question_images/parts_leaf_556.png | a. epidermis, b. stoma, c. palisade mesophyll, d. spongy mesophyll | b | DQ_003742 | image | question_images/parts_leaf_3855.png | parts_leaf_3855.png | 0.814715 |
DQ_003763 | From the diagram, identify the part of the plant which allows movement of gases in and out. | question_images/parts_leaf_556.png | a. epidermis, b. stoma, c. palisade mesophyll, d. spongy mesophyll | b | DQ_003735 | image | question_images/parts_leaf_3853.png | parts_leaf_3853.png | 0.814642 |
DQ_003763 | From the diagram, identify the part of the plant which allows movement of gases in and out. | question_images/parts_leaf_556.png | a. epidermis, b. stoma, c. palisade mesophyll, d. spongy mesophyll | b | T_3385 | text | null | Plants seem to grow wherever they can. How? Plants cant move on their own. So how does a plant start growing in a new area? | 0.688366 |
DQ_003763 | From the diagram, identify the part of the plant which allows movement of gases in and out. | question_images/parts_leaf_556.png | a. epidermis, b. stoma, c. palisade mesophyll, d. spongy mesophyll | b | T_1598 | text | null | Plants and animals depend on water to live. They also play a role in the water cycle. Plants take up water from the soil and release large amounts of water vapor into the air through their leaves (Figure 1.3), a process known as transpiration. | 0.68065 |
DQ_003763 | From the diagram, identify the part of the plant which allows movement of gases in and out. | question_images/parts_leaf_556.png | a. epidermis, b. stoma, c. palisade mesophyll, d. spongy mesophyll | b | T_3434 | text | null | Water also moves through the living organisms in an ecosystem. Plants soak up large amounts of water through their roots. The water then moves up the plant and evaporates from the leaves in a process called transpiration. The process of transpiration, like evaporation, returns water back into the atmosphere. | 0.678183 |
DQ_003763 | From the diagram, identify the part of the plant which allows movement of gases in and out. | question_images/parts_leaf_556.png | a. epidermis, b. stoma, c. palisade mesophyll, d. spongy mesophyll | b | T_2508 | text | null | Cellular respiration and photosynthesis are like two sides of the same coin. This is clear from the diagram in Figure needed for photosynthesis. Together, the two processes store and release energy in virtually all living things. | 0.650552 |
DQ_003763 | From the diagram, identify the part of the plant which allows movement of gases in and out. | question_images/parts_leaf_556.png | a. epidermis, b. stoma, c. palisade mesophyll, d. spongy mesophyll | b | T_1312 | text | null | In photosynthesis, plants use CO2 and create O2 . Photosynthesis is responsible for nearly all of the oxygen currently found in the atmosphere. The chemical reaction for photosynthesis is: 6CO2 + 6H2 O + solar energy C6 H12 O6 (sugar) + 6O2 | 0.65032 |
DQ_003763 | From the diagram, identify the part of the plant which allows movement of gases in and out. | question_images/parts_leaf_556.png | a. epidermis, b. stoma, c. palisade mesophyll, d. spongy mesophyll | b | T_1950 | text | null | The most basic division of modern plants is between nonvascular and vascular plants. Vascular plants are further divided into those that reproduce without seeds and those that reproduce with seeds. Seed plants, in turn, are divided into those that produce naked seeds in cones and those that produce seeds in the ovaries of flowers. | 0.649368 |
DQ_003763 | From the diagram, identify the part of the plant which allows movement of gases in and out. | question_images/parts_leaf_556.png | a. epidermis, b. stoma, c. palisade mesophyll, d. spongy mesophyll | b | T_0205 | text | null | We usually cant sense the air around us unless it is moving. But air has the same basic properties as other matter. For example, air has mass, volume and, of course, density. | 0.64775 |
DQ_003763 | From the diagram, identify the part of the plant which allows movement of gases in and out. | question_images/parts_leaf_556.png | a. epidermis, b. stoma, c. palisade mesophyll, d. spongy mesophyll | b | T_1797 | text | null | The two types of air pollutants are primary pollutants, which enter the atmosphere directly, and secondary pollutants, which form from a chemical reaction. | 0.642416 |
DQ_003763 | From the diagram, identify the part of the plant which allows movement of gases in and out. | question_images/parts_leaf_556.png | a. epidermis, b. stoma, c. palisade mesophyll, d. spongy mesophyll | b | T_0966 | text | null | Why is such a small amount of carbon dioxide in the atmosphere even important? Carbon dioxide is a greenhouse gas. Greenhouse gases trap heat energy that would otherwise radiate out into space, which warms Earth. These gases were discussed in the chapter Atmospheric Processes. | 0.636738 |
DQ_003763 | From the diagram, identify the part of the plant which allows movement of gases in and out. | question_images/parts_leaf_556.png | a. epidermis, b. stoma, c. palisade mesophyll, d. spongy mesophyll | b | T_1947 | text | null | Some seed plants evolved another major adaptation. This was the formation of seeds in flowers. Flowers are plant structures that contain male and/or female reproductive organs. | 0.636532 |
DQ_003764 | This is found in the epidermis, and allows for gas exchange: | question_images/parts_leaf_556.png | a. Vein, b. Stoma, c. Spongy Mesophyll, d. Palisade Mesophyll | b | DQ_003762 | image | question_images/parts_leaf_556.png | parts_leaf_556.png | 1 |
DQ_003764 | This is found in the epidermis, and allows for gas exchange: | question_images/parts_leaf_556.png | a. Vein, b. Stoma, c. Spongy Mesophyll, d. Palisade Mesophyll | b | DQ_003337 | image | abc_question_images/parts_leaf_11117.png | parts_leaf_11117.png | 0.851202 |
DQ_003764 | This is found in the epidermis, and allows for gas exchange: | question_images/parts_leaf_556.png | a. Vein, b. Stoma, c. Spongy Mesophyll, d. Palisade Mesophyll | b | DQ_003601 | image | question_images/parts_leaf_1117.png | parts_leaf_1117.png | 0.850562 |
DQ_003764 | This is found in the epidermis, and allows for gas exchange: | question_images/parts_leaf_556.png | a. Vein, b. Stoma, c. Spongy Mesophyll, d. Palisade Mesophyll | b | DQ_003698 | image | question_images/parts_leaf_3139.png | parts_leaf_3139.png | 0.842751 |
DQ_003764 | This is found in the epidermis, and allows for gas exchange: | question_images/parts_leaf_556.png | a. Vein, b. Stoma, c. Spongy Mesophyll, d. Palisade Mesophyll | b | DQ_003684 | image | question_images/parts_leaf_3137.png | parts_leaf_3137.png | 0.831379 |
DQ_003764 | This is found in the epidermis, and allows for gas exchange: | question_images/parts_leaf_556.png | a. Vein, b. Stoma, c. Spongy Mesophyll, d. Palisade Mesophyll | b | DQ_003363 | image | abc_question_images/parts_leaf_13137.png | parts_leaf_13137.png | 0.831379 |
DQ_003764 | This is found in the epidermis, and allows for gas exchange: | question_images/parts_leaf_556.png | a. Vein, b. Stoma, c. Spongy Mesophyll, d. Palisade Mesophyll | b | DQ_003359 | image | abc_question_images/parts_leaf_13134.png | parts_leaf_13134.png | 0.825606 |
DQ_003764 | This is found in the epidermis, and allows for gas exchange: | question_images/parts_leaf_556.png | a. Vein, b. Stoma, c. Spongy Mesophyll, d. Palisade Mesophyll | b | DQ_003372 | image | abc_question_images/parts_leaf_13853.png | parts_leaf_13853.png | 0.825388 |
DQ_003764 | This is found in the epidermis, and allows for gas exchange: | question_images/parts_leaf_556.png | a. Vein, b. Stoma, c. Spongy Mesophyll, d. Palisade Mesophyll | b | DQ_003742 | image | question_images/parts_leaf_3855.png | parts_leaf_3855.png | 0.814715 |
DQ_003764 | This is found in the epidermis, and allows for gas exchange: | question_images/parts_leaf_556.png | a. Vein, b. Stoma, c. Spongy Mesophyll, d. Palisade Mesophyll | b | DQ_003735 | image | question_images/parts_leaf_3853.png | parts_leaf_3853.png | 0.814642 |
DQ_003764 | This is found in the epidermis, and allows for gas exchange: | question_images/parts_leaf_556.png | a. Vein, b. Stoma, c. Spongy Mesophyll, d. Palisade Mesophyll | b | T_2746 | text | null | Like all organisms, bacteria need energy, and they can acquire this energy through a number of different ways. | 0.655095 |
DQ_003764 | This is found in the epidermis, and allows for gas exchange: | question_images/parts_leaf_556.png | a. Vein, b. Stoma, c. Spongy Mesophyll, d. Palisade Mesophyll | b | T_0691 | text | null | Sedimentary rocks form in two ways. Particles may be cemented together. Chemicals may precipitate. | 0.653327 |
DQ_003764 | This is found in the epidermis, and allows for gas exchange: | question_images/parts_leaf_556.png | a. Vein, b. Stoma, c. Spongy Mesophyll, d. Palisade Mesophyll | b | T_2471 | text | null | Eukaryotic cells contain a nucleus and several other types of organelles. These structures carry out many vital cell functions. | 0.644406 |
DQ_003764 | This is found in the epidermis, and allows for gas exchange: | question_images/parts_leaf_556.png | a. Vein, b. Stoma, c. Spongy Mesophyll, d. Palisade Mesophyll | b | T_0777 | text | null | Plates move apart at divergent plate boundaries. This can occur in the oceans or on land. | 0.637701 |
DQ_003764 | This is found in the epidermis, and allows for gas exchange: | question_images/parts_leaf_556.png | a. Vein, b. Stoma, c. Spongy Mesophyll, d. Palisade Mesophyll | b | T_0726 | text | null | Nuclear energy is produced by splitting the nucleus of an atom. This releases a huge amount of energy. | 0.637395 |
DQ_003764 | This is found in the epidermis, and allows for gas exchange: | question_images/parts_leaf_556.png | a. Vein, b. Stoma, c. Spongy Mesophyll, d. Palisade Mesophyll | b | T_2469 | text | null | Why does a cell have cytoplasm? Cytoplasm has several important functions. These include: suspending cell organelles. pushing against the cell membrane to help the cell keep its shape. providing a site for many of the biochemical reactions of the cell. | 0.628629 |
DQ_003764 | This is found in the epidermis, and allows for gas exchange: | question_images/parts_leaf_556.png | a. Vein, b. Stoma, c. Spongy Mesophyll, d. Palisade Mesophyll | b | T_2468 | text | null | Cytoplasm is everything inside the cell membrane (except the nucleus if there is one). It includes the watery, gel-like cytosol. It also includes other structures. The water in the cytoplasm makes up about two-thirds of the cells weight. It gives the cell many of its properties. | 0.626407 |
DQ_003764 | This is found in the epidermis, and allows for gas exchange: | question_images/parts_leaf_556.png | a. Vein, b. Stoma, c. Spongy Mesophyll, d. Palisade Mesophyll | b | T_3960 | text | null | Solids that change to gases generally first pass through the liquid state. However, sometimes solids change directly to gases and skip the liquid state. The reverse can also occur. Sometimes gases change directly to solids. | 0.624296 |
DQ_003764 | This is found in the epidermis, and allows for gas exchange: | question_images/parts_leaf_556.png | a. Vein, b. Stoma, c. Spongy Mesophyll, d. Palisade Mesophyll | b | T_2219 | text | null | After the blood in the capillaries in the lungs picks up oxygen, it leaves the lungs and travels to the heart. The heart pumps the oxygen-rich blood into arteries, which carry it throughout the body. The blood passes eventually into capillaries that supply body cells. | 0.624244 |
DQ_003764 | This is found in the epidermis, and allows for gas exchange: | question_images/parts_leaf_556.png | a. Vein, b. Stoma, c. Spongy Mesophyll, d. Palisade Mesophyll | b | T_2650 | text | null | Bacteria are the most diverse organisms on Earth. Thousands of species of bacteria have been discovered. Many more are thought to exist. The known species are classified on the basis of various traits. For example, they may be classified by the shape of their cells. They may also be classified by how they react to a dye called Gram stain. | 0.623602 |
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