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DQ_003630 | What protects the emerging leaf or bud? | question_images/parts_leaf_1123.png | a. blade, b. petiole, c. stipule, d. midrib | c | DQ_003629 | image | question_images/parts_leaf_1123.png | parts_leaf_1123.png | 1 |
DQ_003630 | What protects the emerging leaf or bud? | question_images/parts_leaf_1123.png | a. blade, b. petiole, c. stipule, d. midrib | c | DQ_003758 | image | question_images/parts_leaf_3979.png | parts_leaf_3979.png | 0.843357 |
DQ_003630 | What protects the emerging leaf or bud? | question_images/parts_leaf_1123.png | a. blade, b. petiole, c. stipule, d. midrib | c | DQ_003343 | image | abc_question_images/parts_leaf_11123.png | parts_leaf_11123.png | 0.80126 |
DQ_003630 | What protects the emerging leaf or bud? | question_images/parts_leaf_1123.png | a. blade, b. petiole, c. stipule, d. midrib | c | DQ_003608 | image | question_images/parts_leaf_1119.png | parts_leaf_1119.png | 0.787355 |
DQ_003630 | What protects the emerging leaf or bud? | question_images/parts_leaf_1123.png | a. blade, b. petiole, c. stipule, d. midrib | c | DQ_003788 | image | question_images/parts_leaf_6262.png | parts_leaf_6262.png | 0.752895 |
DQ_003630 | What protects the emerging leaf or bud? | question_images/parts_leaf_1123.png | a. blade, b. petiole, c. stipule, d. midrib | c | DQ_003588 | image | question_images/parts_leaf_1115.png | parts_leaf_1115.png | 0.751612 |
DQ_003630 | What protects the emerging leaf or bud? | question_images/parts_leaf_1123.png | a. blade, b. petiole, c. stipule, d. midrib | c | DQ_003554 | image | question_images/parts_leaf_1096.png | parts_leaf_1096.png | 0.750715 |
DQ_003630 | What protects the emerging leaf or bud? | question_images/parts_leaf_1123.png | a. blade, b. petiole, c. stipule, d. midrib | c | DQ_003716 | image | question_images/parts_leaf_3149.png | parts_leaf_3149.png | 0.745325 |
DQ_003630 | What protects the emerging leaf or bud? | question_images/parts_leaf_1123.png | a. blade, b. petiole, c. stipule, d. midrib | c | DQ_003922 | image | question_images/parts_plant_3225.png | parts_plant_3225.png | 0.743086 |
DQ_003630 | What protects the emerging leaf or bud? | question_images/parts_leaf_1123.png | a. blade, b. petiole, c. stipule, d. midrib | c | DQ_003635 | image | question_images/parts_leaf_1124.png | parts_leaf_1124.png | 0.737869 |
DQ_003630 | What protects the emerging leaf or bud? | question_images/parts_leaf_1123.png | a. blade, b. petiole, c. stipule, d. midrib | c | T_2527 | text | null | Budding occurs when a parent cell forms a bubble-like bud. The bud stays attached to the parent while it grows and develops. It breaks away from the parent only after it is fully formed. Yeasts can reproduce this way. You can see two yeast cells budding in Figure 5.11. | 0.629107 |
DQ_003630 | What protects the emerging leaf or bud? | question_images/parts_leaf_1123.png | a. blade, b. petiole, c. stipule, d. midrib | 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? | 0.576198 |
DQ_003630 | What protects the emerging leaf or bud? | question_images/parts_leaf_1123.png | a. blade, b. petiole, c. stipule, d. midrib | c | 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. | 0.572856 |
DQ_003630 | What protects the emerging leaf or bud? | question_images/parts_leaf_1123.png | a. blade, b. petiole, c. stipule, d. midrib | c | 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. | 0.571429 |
DQ_003630 | What protects the emerging leaf or bud? | question_images/parts_leaf_1123.png | a. blade, b. petiole, c. stipule, d. midrib | c | T_2534 | text | null | Both types of reproduction have certain advantages. | 0.555543 |
DQ_003630 | What protects the emerging leaf or bud? | question_images/parts_leaf_1123.png | a. blade, b. petiole, c. stipule, d. midrib | c | T_1698 | text | null | How well soil forms and what type of soil forms depends on several different factors, which are described below. | 0.547458 |
DQ_003630 | What protects the emerging leaf or bud? | question_images/parts_leaf_1123.png | a. blade, b. petiole, c. stipule, d. midrib | c | T_0987 | text | null | Now that you know what chemical weathering is, can you think of some other ways chemical weathering might occur? Chemical weathering can also be contributed to by plants and animals. As plant roots take in soluble ions as nutrients, certain elements are exchanged. Plant roots and bacterial decay use carbon dioxide in the process of respiration. | 0.541959 |
DQ_003630 | What protects the emerging leaf or bud? | question_images/parts_leaf_1123.png | a. blade, b. petiole, c. stipule, d. midrib | c | T_2385 | text | null | Two important concepts associated with the ecosystem are niche and habitat. | 0.539817 |
DQ_003630 | What protects the emerging leaf or bud? | question_images/parts_leaf_1123.png | a. blade, b. petiole, c. stipule, d. midrib | c | 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. | 0.539148 |
DQ_003630 | What protects the emerging leaf or bud? | question_images/parts_leaf_1123.png | a. blade, b. petiole, c. stipule, d. midrib | c | T_1106 | text | null | Despite these problems, there is a rich fossil record. How does an organism become fossilized? | 0.534778 |
DQ_003631 | What does the petiole lead to? | question_images/parts_leaf_1123.png | a. Stamen, b. Midrib, c. Stipules, d. Blade | b | DQ_003629 | image | question_images/parts_leaf_1123.png | parts_leaf_1123.png | 1 |
DQ_003631 | What does the petiole lead to? | question_images/parts_leaf_1123.png | a. Stamen, b. Midrib, c. Stipules, d. Blade | b | DQ_003758 | image | question_images/parts_leaf_3979.png | parts_leaf_3979.png | 0.843357 |
DQ_003631 | What does the petiole lead to? | question_images/parts_leaf_1123.png | a. Stamen, b. Midrib, c. Stipules, d. Blade | b | DQ_003343 | image | abc_question_images/parts_leaf_11123.png | parts_leaf_11123.png | 0.80126 |
DQ_003631 | What does the petiole lead to? | question_images/parts_leaf_1123.png | a. Stamen, b. Midrib, c. Stipules, d. Blade | b | DQ_003608 | image | question_images/parts_leaf_1119.png | parts_leaf_1119.png | 0.787355 |
DQ_003631 | What does the petiole lead to? | question_images/parts_leaf_1123.png | a. Stamen, b. Midrib, c. Stipules, d. Blade | b | DQ_003788 | image | question_images/parts_leaf_6262.png | parts_leaf_6262.png | 0.752895 |
DQ_003631 | What does the petiole lead to? | question_images/parts_leaf_1123.png | a. Stamen, b. Midrib, c. Stipules, d. Blade | b | DQ_003588 | image | question_images/parts_leaf_1115.png | parts_leaf_1115.png | 0.751612 |
DQ_003631 | What does the petiole lead to? | question_images/parts_leaf_1123.png | a. Stamen, b. Midrib, c. Stipules, d. Blade | b | DQ_003554 | image | question_images/parts_leaf_1096.png | parts_leaf_1096.png | 0.750715 |
DQ_003631 | What does the petiole lead to? | question_images/parts_leaf_1123.png | a. Stamen, b. Midrib, c. Stipules, d. Blade | b | DQ_003716 | image | question_images/parts_leaf_3149.png | parts_leaf_3149.png | 0.745325 |
DQ_003631 | What does the petiole lead to? | question_images/parts_leaf_1123.png | a. Stamen, b. Midrib, c. Stipules, d. Blade | b | DQ_003922 | image | question_images/parts_plant_3225.png | parts_plant_3225.png | 0.743086 |
DQ_003631 | What does the petiole lead to? | question_images/parts_leaf_1123.png | a. Stamen, b. Midrib, c. Stipules, d. Blade | b | DQ_003635 | image | question_images/parts_leaf_1124.png | parts_leaf_1124.png | 0.737869 |
DQ_003631 | What does the petiole lead to? | question_images/parts_leaf_1123.png | a. Stamen, b. Midrib, c. Stipules, d. Blade | b | T_1106 | text | null | Despite these problems, there is a rich fossil record. How does an organism become fossilized? | 0.393992 |
DQ_003631 | What does the petiole lead to? | question_images/parts_leaf_1123.png | a. Stamen, b. Midrib, c. Stipules, d. Blade | 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 | 0.384167 |
DQ_003631 | What does the petiole lead to? | question_images/parts_leaf_1123.png | a. Stamen, b. Midrib, c. Stipules, d. Blade | b | 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? | 0.382473 |
DQ_003631 | What does the petiole lead to? | question_images/parts_leaf_1123.png | a. Stamen, b. Midrib, c. Stipules, d. Blade | b | T_1117 | text | null | Scientists know that the mantle is made of rock based on evidence from seismic waves, heat flow, and meteorites. The properties fit the ultramafic rock peridotite, which is made of the iron- and magnesium-rich silicate minerals (Figure 1.1). Peridotite is rarely found at Earths surface. | 0.378645 |
DQ_003631 | What does the petiole lead to? | question_images/parts_leaf_1123.png | a. Stamen, b. Midrib, c. Stipules, d. Blade | b | T_3201 | text | null | Along with the skin, the integumentary system includes the nails and hair. Both the nails and hair contain the tough protein, keratin. The keratin forms fibers, which makes your nails and hair tough and strong. Keratin is similar in toughness to chitin, the carbohydrate found in the exoskeleton of arthropods. | 0.377982 |
DQ_003631 | What does the petiole lead to? | question_images/parts_leaf_1123.png | a. Stamen, b. Midrib, c. Stipules, d. Blade | b | T_2315 | text | null | Did you ever get a splinter in your skin, like the one in Figure 21.11? It doesnt look like a serious injury, but even a tiny break in the skin may let pathogens enter the body. If bacteria enter through the break, for example, they could cause an infection. These bacteria would then face the bodys second line of defense. | 0.375405 |
DQ_003631 | What does the petiole lead to? | question_images/parts_leaf_1123.png | a. Stamen, b. Midrib, c. Stipules, d. Blade | b | T_0987 | text | null | Now that you know what chemical weathering is, can you think of some other ways chemical weathering might occur? Chemical weathering can also be contributed to by plants and animals. As plant roots take in soluble ions as nutrients, certain elements are exchanged. Plant roots and bacterial decay use carbon dioxide in the process of respiration. | 0.372345 |
DQ_003631 | What does the petiole lead to? | question_images/parts_leaf_1123.png | a. Stamen, b. Midrib, c. Stipules, d. Blade | b | T_3491 | text | null | Vitamins and minerals are also nutrients. They do not provide energy, but they are needed for good health. | 0.37185 |
DQ_003631 | What does the petiole lead to? | question_images/parts_leaf_1123.png | a. Stamen, b. Midrib, c. Stipules, d. Blade | b | T_2163 | text | null | The vitamins to watch out for are A, D, E, and K. These vitamins are stored by the body, so they can build up to high levels. | 0.369754 |
DQ_003631 | What does the petiole lead to? | question_images/parts_leaf_1123.png | a. Stamen, b. Midrib, c. Stipules, d. Blade | b | T_3943 | text | null | The particles that make up matter are also constantly moving. They have kinetic energy. The theory that all matter consists of constantly moving particles is called the kinetic theory of matter. You can learn more about it at the URL below. | 0.368362 |
DQ_003632 | What part is not part of the leaf? | question_images/parts_leaf_1123.png | a. Stipules, b. Blade, c. Midrib, d. Petiole | a | DQ_003629 | image | question_images/parts_leaf_1123.png | parts_leaf_1123.png | 1 |
DQ_003632 | What part is not part of the leaf? | question_images/parts_leaf_1123.png | a. Stipules, b. Blade, c. Midrib, d. Petiole | a | DQ_003758 | image | question_images/parts_leaf_3979.png | parts_leaf_3979.png | 0.843357 |
DQ_003632 | What part is not part of the leaf? | question_images/parts_leaf_1123.png | a. Stipules, b. Blade, c. Midrib, d. Petiole | a | DQ_003343 | image | abc_question_images/parts_leaf_11123.png | parts_leaf_11123.png | 0.80126 |
DQ_003632 | What part is not part of the leaf? | question_images/parts_leaf_1123.png | a. Stipules, b. Blade, c. Midrib, d. Petiole | a | DQ_003608 | image | question_images/parts_leaf_1119.png | parts_leaf_1119.png | 0.787355 |
DQ_003632 | What part is not part of the leaf? | question_images/parts_leaf_1123.png | a. Stipules, b. Blade, c. Midrib, d. Petiole | a | DQ_003788 | image | question_images/parts_leaf_6262.png | parts_leaf_6262.png | 0.752895 |
DQ_003632 | What part is not part of the leaf? | question_images/parts_leaf_1123.png | a. Stipules, b. Blade, c. Midrib, d. Petiole | a | DQ_003588 | image | question_images/parts_leaf_1115.png | parts_leaf_1115.png | 0.751612 |
DQ_003632 | What part is not part of the leaf? | question_images/parts_leaf_1123.png | a. Stipules, b. Blade, c. Midrib, d. Petiole | a | DQ_003554 | image | question_images/parts_leaf_1096.png | parts_leaf_1096.png | 0.750715 |
DQ_003632 | What part is not part of the leaf? | question_images/parts_leaf_1123.png | a. Stipules, b. Blade, c. Midrib, d. Petiole | a | DQ_003716 | image | question_images/parts_leaf_3149.png | parts_leaf_3149.png | 0.745325 |
DQ_003632 | What part is not part of the leaf? | question_images/parts_leaf_1123.png | a. Stipules, b. Blade, c. Midrib, d. Petiole | a | DQ_003922 | image | question_images/parts_plant_3225.png | parts_plant_3225.png | 0.743086 |
DQ_003632 | What part is not part of the leaf? | question_images/parts_leaf_1123.png | a. Stipules, b. Blade, c. Midrib, d. Petiole | a | DQ_003635 | image | question_images/parts_leaf_1124.png | parts_leaf_1124.png | 0.737869 |
DQ_003632 | What part is not part of the leaf? | question_images/parts_leaf_1123.png | a. Stipules, b. Blade, c. Midrib, d. Petiole | a | 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? | 0.6028 |
DQ_003632 | What part is not part of the leaf? | question_images/parts_leaf_1123.png | a. Stipules, b. Blade, c. Midrib, d. Petiole | a | 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. | 0.581279 |
DQ_003632 | What part is not part of the leaf? | question_images/parts_leaf_1123.png | a. Stipules, b. Blade, c. Midrib, d. Petiole | a | T_2956 | text | null | Scientists used to think that fungi were members of the plant kingdom. They thought this because fungi had several similarities to plants. For example: Fungi and plants have similar structures. Plants and fungi live in the same kinds of habitats, such as growing in soil. Plants and fungi cells both have a cell wall, which animals do not have. | 0.57352 |
DQ_003632 | What part is not part of the leaf? | question_images/parts_leaf_1123.png | a. Stipules, b. Blade, c. Midrib, d. Petiole | a | T_1106 | text | null | Despite these problems, there is a rich fossil record. How does an organism become fossilized? | 0.56238 |
DQ_003632 | What part is not part of the leaf? | question_images/parts_leaf_1123.png | a. Stipules, b. Blade, c. Midrib, d. Petiole | a | T_0638 | text | null | To understand minerals, we must first understand matter. Matter is the substance that physical objects are made of. | 0.561806 |
DQ_003632 | What part is not part of the leaf? | question_images/parts_leaf_1123.png | a. Stipules, b. Blade, c. Midrib, d. Petiole | a | 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. | 0.559293 |
DQ_003632 | What part is not part of the leaf? | question_images/parts_leaf_1123.png | a. Stipules, b. Blade, c. Midrib, d. Petiole | a | 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 | 0.558044 |
DQ_003632 | What part is not part of the leaf? | question_images/parts_leaf_1123.png | a. Stipules, b. Blade, c. Midrib, d. Petiole | a | 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. | 0.556087 |
DQ_003632 | What part is not part of the leaf? | question_images/parts_leaf_1123.png | a. Stipules, b. Blade, c. Midrib, d. Petiole | a | 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: | 0.552691 |
DQ_003632 | What part is not part of the leaf? | question_images/parts_leaf_1123.png | a. Stipules, b. Blade, c. Midrib, d. Petiole | a | T_1283 | text | null | Despite these problems, there is a rich fossil record. How does an organism become fossilized? A rare insect fossil. | 0.549314 |
DQ_003633 | How many parts of a leaf are there? | question_images/parts_leaf_1123.png | a. 3, b. 4, c. 2, d. 5 | b | DQ_003629 | image | question_images/parts_leaf_1123.png | parts_leaf_1123.png | 1 |
DQ_003633 | How many parts of a leaf are there? | question_images/parts_leaf_1123.png | a. 3, b. 4, c. 2, d. 5 | b | DQ_003758 | image | question_images/parts_leaf_3979.png | parts_leaf_3979.png | 0.843357 |
DQ_003633 | How many parts of a leaf are there? | question_images/parts_leaf_1123.png | a. 3, b. 4, c. 2, d. 5 | b | DQ_003343 | image | abc_question_images/parts_leaf_11123.png | parts_leaf_11123.png | 0.80126 |
DQ_003633 | How many parts of a leaf are there? | question_images/parts_leaf_1123.png | a. 3, b. 4, c. 2, d. 5 | b | DQ_003608 | image | question_images/parts_leaf_1119.png | parts_leaf_1119.png | 0.787355 |
DQ_003633 | How many parts of a leaf are there? | question_images/parts_leaf_1123.png | a. 3, b. 4, c. 2, d. 5 | b | DQ_003788 | image | question_images/parts_leaf_6262.png | parts_leaf_6262.png | 0.752895 |
DQ_003633 | How many parts of a leaf are there? | question_images/parts_leaf_1123.png | a. 3, b. 4, c. 2, d. 5 | b | DQ_003588 | image | question_images/parts_leaf_1115.png | parts_leaf_1115.png | 0.751612 |
DQ_003633 | How many parts of a leaf are there? | question_images/parts_leaf_1123.png | a. 3, b. 4, c. 2, d. 5 | b | DQ_003554 | image | question_images/parts_leaf_1096.png | parts_leaf_1096.png | 0.750715 |
DQ_003633 | How many parts of a leaf are there? | question_images/parts_leaf_1123.png | a. 3, b. 4, c. 2, d. 5 | b | DQ_003716 | image | question_images/parts_leaf_3149.png | parts_leaf_3149.png | 0.745325 |
DQ_003633 | How many parts of a leaf are there? | question_images/parts_leaf_1123.png | a. 3, b. 4, c. 2, d. 5 | b | DQ_003922 | image | question_images/parts_plant_3225.png | parts_plant_3225.png | 0.743086 |
DQ_003633 | How many parts of a leaf are there? | question_images/parts_leaf_1123.png | a. 3, b. 4, c. 2, d. 5 | b | DQ_003635 | image | question_images/parts_leaf_1124.png | parts_leaf_1124.png | 0.737869 |
DQ_003633 | How many parts of a leaf are there? | question_images/parts_leaf_1123.png | a. 3, b. 4, c. 2, d. 5 | 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? | 0.607112 |
DQ_003633 | How many parts of a leaf are there? | question_images/parts_leaf_1123.png | a. 3, b. 4, c. 2, d. 5 | 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. | 0.592067 |
DQ_003633 | How many parts of a leaf are there? | question_images/parts_leaf_1123.png | a. 3, b. 4, c. 2, d. 5 | 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. | 0.566302 |
DQ_003633 | How many parts of a leaf are there? | question_images/parts_leaf_1123.png | a. 3, b. 4, c. 2, d. 5 | 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. | 0.566192 |
DQ_003633 | How many parts of a leaf are there? | question_images/parts_leaf_1123.png | a. 3, b. 4, c. 2, d. 5 | b | T_1958 | text | null | Plants live just about everywhere on Earth. To live in so many different habitats, they have evolved adaptations that allow them to survive and reproduce under a diversity of conditions. Some plants have evolved special adaptations that let them live in extreme environments. | 0.555299 |
DQ_003633 | How many parts of a leaf are there? | question_images/parts_leaf_1123.png | a. 3, b. 4, c. 2, d. 5 | b | T_3770 | text | null | Why does a tree make sound when it crashes to the ground? How does the sound reach peoples ears if they happen to be in the forest? And in general, how do sounds get started, and how do they travel? Keep reading to find out. | 0.55352 |
DQ_003633 | How many parts of a leaf are there? | question_images/parts_leaf_1123.png | a. 3, b. 4, c. 2, d. 5 | 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. | 0.553269 |
DQ_003633 | How many parts of a leaf are there? | question_images/parts_leaf_1123.png | a. 3, b. 4, c. 2, d. 5 | b | T_2956 | text | null | Scientists used to think that fungi were members of the plant kingdom. They thought this because fungi had several similarities to plants. For example: Fungi and plants have similar structures. Plants and fungi live in the same kinds of habitats, such as growing in soil. Plants and fungi cells both have a cell wall, which animals do not have. | 0.548806 |
DQ_003633 | How many parts of a leaf are there? | question_images/parts_leaf_1123.png | a. 3, b. 4, c. 2, d. 5 | 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 | 0.548025 |
DQ_003633 | How many parts of a leaf are there? | question_images/parts_leaf_1123.png | a. 3, b. 4, c. 2, d. 5 | b | T_2015 | text | null | The majority of arthropods are insects (Class Insecta). In fact, more than half of all known organisms are insects. There may be more than 10 million insect species in the world, although most of them have not yet been identified. In terms of their numbers and diversity, insects clearly are the dominant animals in the world. | 0.547374 |
DQ_003634 | This is the stalk that joins a leaf to the stem. | question_images/parts_leaf_1123.png | a. Midrib, b. Leaf, c. Petiole, d. Blade | c | DQ_003629 | image | question_images/parts_leaf_1123.png | parts_leaf_1123.png | 1 |
DQ_003634 | This is the stalk that joins a leaf to the stem. | question_images/parts_leaf_1123.png | a. Midrib, b. Leaf, c. Petiole, d. Blade | c | DQ_003758 | image | question_images/parts_leaf_3979.png | parts_leaf_3979.png | 0.843357 |
DQ_003634 | This is the stalk that joins a leaf to the stem. | question_images/parts_leaf_1123.png | a. Midrib, b. Leaf, c. Petiole, d. Blade | c | DQ_003343 | image | abc_question_images/parts_leaf_11123.png | parts_leaf_11123.png | 0.80126 |
DQ_003634 | This is the stalk that joins a leaf to the stem. | question_images/parts_leaf_1123.png | a. Midrib, b. Leaf, c. Petiole, d. Blade | c | DQ_003608 | image | question_images/parts_leaf_1119.png | parts_leaf_1119.png | 0.787355 |
DQ_003634 | This is the stalk that joins a leaf to the stem. | question_images/parts_leaf_1123.png | a. Midrib, b. Leaf, c. Petiole, d. Blade | c | DQ_003788 | image | question_images/parts_leaf_6262.png | parts_leaf_6262.png | 0.752895 |
DQ_003634 | This is the stalk that joins a leaf to the stem. | question_images/parts_leaf_1123.png | a. Midrib, b. Leaf, c. Petiole, d. Blade | c | DQ_003588 | image | question_images/parts_leaf_1115.png | parts_leaf_1115.png | 0.751612 |
DQ_003634 | This is the stalk that joins a leaf to the stem. | question_images/parts_leaf_1123.png | a. Midrib, b. Leaf, c. Petiole, d. Blade | c | DQ_003554 | image | question_images/parts_leaf_1096.png | parts_leaf_1096.png | 0.750715 |
DQ_003634 | This is the stalk that joins a leaf to the stem. | question_images/parts_leaf_1123.png | a. Midrib, b. Leaf, c. Petiole, d. Blade | c | DQ_003716 | image | question_images/parts_leaf_3149.png | parts_leaf_3149.png | 0.745325 |
DQ_003634 | This is the stalk that joins a leaf to the stem. | question_images/parts_leaf_1123.png | a. Midrib, b. Leaf, c. Petiole, d. Blade | c | DQ_003922 | image | question_images/parts_plant_3225.png | parts_plant_3225.png | 0.743086 |
DQ_003634 | This is the stalk that joins a leaf to the stem. | question_images/parts_leaf_1123.png | a. Midrib, b. Leaf, c. Petiole, d. Blade | c | DQ_003635 | image | question_images/parts_leaf_1124.png | parts_leaf_1124.png | 0.737869 |
DQ_003634 | This is the stalk that joins a leaf to the stem. | question_images/parts_leaf_1123.png | a. Midrib, 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? | 0.57012 |
DQ_003634 | This is the stalk that joins a leaf to the stem. | question_images/parts_leaf_1123.png | a. Midrib, b. Leaf, c. Petiole, d. Blade | c | T_2527 | text | null | Budding occurs when a parent cell forms a bubble-like bud. The bud stays attached to the parent while it grows and develops. It breaks away from the parent only after it is fully formed. Yeasts can reproduce this way. You can see two yeast cells budding in Figure 5.11. | 0.551436 |
DQ_003634 | This is the stalk that joins a leaf to the stem. | question_images/parts_leaf_1123.png | a. Midrib, b. Leaf, c. Petiole, d. Blade | c | 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. | 0.536987 |
DQ_003634 | This is the stalk that joins a leaf to the stem. | question_images/parts_leaf_1123.png | a. Midrib, b. Leaf, c. Petiole, d. Blade | c | 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. | 0.526022 |
DQ_003634 | This is the stalk that joins a leaf to the stem. | question_images/parts_leaf_1123.png | a. Midrib, b. Leaf, c. Petiole, d. Blade | c | 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. | 0.52467 |
DQ_003634 | This is the stalk that joins a leaf to the stem. | question_images/parts_leaf_1123.png | a. Midrib, b. Leaf, c. Petiole, d. Blade | c | T_1954 | text | null | Instead of fleeing, a plants primary way of responding is to change how it is growing. One way is by tropisms. | 0.519606 |
DQ_003634 | This is the stalk that joins a leaf to the stem. | question_images/parts_leaf_1123.png | a. Midrib, b. Leaf, c. Petiole, d. Blade | c | T_2956 | text | null | Scientists used to think that fungi were members of the plant kingdom. They thought this because fungi had several similarities to plants. For example: Fungi and plants have similar structures. Plants and fungi live in the same kinds of habitats, such as growing in soil. Plants and fungi cells both have a cell wall, which animals do not have. | 0.513469 |
DQ_003634 | This is the stalk that joins a leaf to the stem. | question_images/parts_leaf_1123.png | a. Midrib, b. Leaf, c. Petiole, d. Blade | c | T_1169 | text | null | A rock under enough stress will fracture. There may or may not be movement along the fracture. | 0.512777 |
DQ_003634 | This is the stalk that joins a leaf to the stem. | question_images/parts_leaf_1123.png | a. Midrib, b. Leaf, c. Petiole, d. Blade | c | T_3329 | text | null | Seedless plants can reproduce asexually or sexually. Some seedless plants, like hornworts and liverworts, can reproduce asexually through fragmentation. When a small fragment of the plant is broken off, it can form a new plant. | 0.505606 |
DQ_003634 | This is the stalk that joins a leaf to the stem. | question_images/parts_leaf_1123.png | a. Midrib, b. Leaf, c. Petiole, d. Blade | c | 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. | 0.499899 |
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