questionID
stringlengths 9
10
| question_text
stringlengths 5
324
| question_image
stringclasses 660
values | answer_choices
stringlengths 17
476
| correct_answer
stringclasses 7
values | result_id
stringlengths 6
21
| result_type
stringclasses 2
values | result_imagePath
stringlengths 28
76
⌀ | content
stringlengths 10
1.69k
| cosin_sim_score
float64 0.15
1
|
|---|---|---|---|---|---|---|---|---|---|
NDQ_016177 | the relationship between the temperature and volume of gas is known as amontons law. | null | a. true, b. false | b | T_3948 | image | textbook_images/behavior_of_gases_22547.png | FIGURE 4.14 As the temperature of a gas increases, its volume also increases. | 0.337419 |
NDQ_016177 | the relationship between the temperature and volume of gas is known as amontons law. | null | a. true, b. false | b | T_4470 | image | textbook_images/gases_22861.png | FIGURE 1.2 | 0.308342 |
NDQ_016177 | the relationship between the temperature and volume of gas is known as amontons law. | null | a. true, b. false | b | DQ_011492 | image | abc_question_images/states_of_matter_19256.png | states_of_matter_19256.png | 0.303527 |
NDQ_016177 | the relationship between the temperature and volume of gas is known as amontons law. | null | a. true, b. false | b | DQ_011501 | image | question_images/states_of_matter_7614.png | states_of_matter_7614.png | 0.301524 |
NDQ_016177 | the relationship between the temperature and volume of gas is known as amontons law. | null | a. true, b. false | b | T_3947 | image | textbook_images/behavior_of_gases_22545.png | FIGURE 4.12 As the volume of a gas increases, its pressure decreases. | 0.29547 |
NDQ_016177 | the relationship between the temperature and volume of gas is known as amontons law. | null | a. true, b. false | b | T_4633 | image | textbook_images/modern_periodic_table_22960.png | FIGURE 1.2 | 0.292982 |
NDQ_016177 | the relationship between the temperature and volume of gas is known as amontons law. | null | a. true, b. false | b | T_3945 | image | textbook_images/behavior_of_gases_22544.png | FIGURE 4.11 Earths atmosphere exerts pressure. This pressure is greatest at sea level. Can you explain why? | 0.292609 |
NDQ_016177 | the relationship between the temperature and volume of gas is known as amontons law. | null | a. true, b. false | b | T_3949 | image | textbook_images/behavior_of_gases_22548.png | FIGURE 4.15 As the temperature of a gas increases, its pressure increases as well. | 0.2917 |
NDQ_016177 | the relationship between the temperature and volume of gas is known as amontons law. | null | a. true, b. false | b | T_0205 | image | textbook_images/the_atmosphere_20135.png | FIGURE 15.3 This graph identifies the most common gases in air. | 0.284979 |
NDQ_016177 | the relationship between the temperature and volume of gas is known as amontons law. | null | a. true, b. false | b | T_4279 | image | textbook_images/convection_22749.png | FIGURE 1.1 | 0.284145 |
NDQ_016177 | the relationship between the temperature and volume of gas is known as amontons law. | null | a. true, b. false | b | T_3946 | text | null | For a given amount of gas, scientists have discovered that the pressure, volume, and temperature of a gas are related in certain ways. Because these relationships always hold in nature, they are called laws. The laws are named for the scientists that discovered them. | 0.787584 |
NDQ_016177 | the relationship between the temperature and volume of gas is known as amontons law. | null | a. true, b. false | b | T_4715 | text | null | Compare and contrast the basic properties of matter, such as mass and volume. | 0.68879 |
NDQ_016177 | the relationship between the temperature and volume of gas is known as amontons law. | null | a. true, b. false | b | T_3691 | text | null | No doubt you already have a good idea of what temperature is. You might define it as how hot or cold something feels. In physics, temperature is defined as the average kinetic energy of the particles in an object. When particles move more quickly, temperature is higher and an object feels warmer. When particles move more slowly, temperature is lower and an object feels cooler. | 0.684245 |
NDQ_016177 | the relationship between the temperature and volume of gas is known as amontons law. | null | a. true, b. false | b | T_3939 | text | null | Water vapor is an example of a gas. A gas is matter that has neither a fixed volume nor a fixed shape. Instead, a gas takes both the volume and the shape of its container. It spreads out to take up all available space. You can see an example in Figure 4.6. | 0.673034 |
NDQ_016177 | the relationship between the temperature and volume of gas is known as amontons law. | null | a. true, b. false | 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. | 0.66607 |
NDQ_016177 | the relationship between the temperature and volume of gas is known as amontons law. | null | a. true, b. false | b | T_3941 | text | null | Why do different states of matter have different properties? Its because of differences in energy at the level of atoms and molecules, the tiny particles that make up matter. | 0.662246 |
NDQ_016177 | the relationship between the temperature and volume of gas is known as amontons law. | null | a. true, b. false | b | T_3970 | text | null | The number of protons per atom is always the same for a given element. However, the number of neutrons may vary, and the number of electrons can change. | 0.660405 |
NDQ_016177 | the relationship between the temperature and volume of gas is known as amontons law. | null | a. true, b. false | b | T_4823 | text | null | Newtons third law of motion is just one of many scientific laws. A scientific law is a statement describing what always happens under certain conditions. Other examples of laws in physical science include: Newtons first law of motion Newtons second law of motion Newtons law of universal gravitation Law of conservation of mass Law of conservation of energy Law of conservation of momentum | 0.657823 |
NDQ_016177 | the relationship between the temperature and volume of gas is known as amontons law. | null | a. true, b. false | 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. | 0.657405 |
NDQ_016177 | the relationship between the temperature and volume of gas is known as amontons law. | null | a. true, b. false | b | T_0959 | text | null | The short term cycling of carbon begins with carbon dioxide (CO2 ) in the atmosphere. | 0.65671 |
NDQ_016179 | which of the following units could be used to measure the pressure of a gas? | null | a. pounds per inch, b. Newtons per square meter, c. kilograms per square meter, d. none of the above | b | DQ_011501 | image | question_images/states_of_matter_7614.png | states_of_matter_7614.png | 0.31002 |
NDQ_016179 | which of the following units could be used to measure the pressure of a gas? | null | a. pounds per inch, b. Newtons per square meter, c. kilograms per square meter, d. none of the above | b | T_0287 | image | textbook_images/weather_forecasting_20178.png | FIGURE 16.23 The greater the air pressure outside the tube, the higher the mercury rises inside the tube. Mercury can rise in the tube because theres no air pressing down on it. | 0.290083 |
NDQ_016179 | which of the following units could be used to measure the pressure of a gas? | null | a. pounds per inch, b. Newtons per square meter, c. kilograms per square meter, d. none of the above | b | T_4183 | image | textbook_images/buoyancy_22689.png | FIGURE 1.1 | 0.288395 |
NDQ_016179 | which of the following units could be used to measure the pressure of a gas? | null | a. pounds per inch, b. Newtons per square meter, c. kilograms per square meter, d. none of the above | b | T_3624 | image | textbook_images/buoyancy_of_fluids_22302.png | FIGURE 15.12 Fluid pressure exerts force on all sides of this object, but the force is greater at the bottom of the object where the fluid is deeper. | 0.285338 |
NDQ_016179 | which of the following units could be used to measure the pressure of a gas? | null | a. pounds per inch, b. Newtons per square meter, c. kilograms per square meter, d. none of the above | b | T_3947 | image | textbook_images/behavior_of_gases_22545.png | FIGURE 4.12 As the volume of a gas increases, its pressure decreases. | 0.283369 |
NDQ_016179 | which of the following units could be used to measure the pressure of a gas? | null | a. pounds per inch, b. Newtons per square meter, c. kilograms per square meter, d. none of the above | b | DQ_011534 | image | question_images/states_of_matter_9255.png | states_of_matter_9255.png | 0.283045 |
NDQ_016179 | which of the following units could be used to measure the pressure of a gas? | null | a. pounds per inch, b. Newtons per square meter, c. kilograms per square meter, d. none of the above | b | DQ_011497 | image | question_images/states_of_matter_7613.png | states_of_matter_7613.png | 0.282348 |
NDQ_016179 | which of the following units could be used to measure the pressure of a gas? | null | a. pounds per inch, b. Newtons per square meter, c. kilograms per square meter, d. none of the above | b | DQ_010918 | image | question_images/simple_machines_7559.png | simple_machines_7559.png | 0.279771 |
NDQ_016179 | which of the following units could be used to measure the pressure of a gas? | null | a. pounds per inch, b. Newtons per square meter, c. kilograms per square meter, d. none of the above | b | T_3945 | image | textbook_images/behavior_of_gases_22544.png | FIGURE 4.11 Earths atmosphere exerts pressure. This pressure is greatest at sea level. Can you explain why? | 0.276022 |
NDQ_016179 | which of the following units could be used to measure the pressure of a gas? | null | a. pounds per inch, b. Newtons per square meter, c. kilograms per square meter, d. none of the above | b | DQ_011479 | image | abc_question_images/states_of_matter_17613.png | states_of_matter_17613.png | 0.275802 |
NDQ_016179 | which of the following units could be used to measure the pressure of a gas? | null | a. pounds per inch, b. Newtons per square meter, c. kilograms per square meter, d. none of the above | b | T_3946 | text | null | For a given amount of gas, scientists have discovered that the pressure, volume, and temperature of a gas are related in certain ways. Because these relationships always hold in nature, they are called laws. The laws are named for the scientists that discovered them. | 0.732189 |
NDQ_016179 | which of the following units could be used to measure the pressure of a gas? | null | a. pounds per inch, b. Newtons per square meter, c. kilograms per square meter, d. none of the above | b | T_3941 | text | null | Why do different states of matter have different properties? Its because of differences in energy at the level of atoms and molecules, the tiny particles that make up matter. | 0.687892 |
NDQ_016179 | which of the following units could be used to measure the pressure of a gas? | null | a. pounds per inch, b. Newtons per square meter, c. kilograms per square meter, d. none of the above | b | T_3918 | text | null | Some properties of matter can be measured or observed only when matter undergoes a change to become an entirely different substance. These properties are called chemical properties. They include flammability and reactivity. | 0.684533 |
NDQ_016179 | which of the following units could be used to measure the pressure of a gas? | null | a. pounds per inch, b. Newtons per square meter, c. kilograms per square meter, d. none of the above | b | T_4715 | text | null | Compare and contrast the basic properties of matter, such as mass and volume. | 0.682894 |
NDQ_016179 | which of the following units could be used to measure the pressure of a gas? | null | a. pounds per inch, b. Newtons per square meter, c. kilograms per square meter, d. none of the above | 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. | 0.6683 |
NDQ_016179 | which of the following units could be used to measure the pressure of a gas? | null | a. pounds per inch, b. Newtons per square meter, c. kilograms per square meter, d. none of the above | b | T_4421 | text | null | 1. What is the traditional definition of gravity? 2. Identify factors that influence the strength of gravity between two objects. | 0.658502 |
NDQ_016179 | which of the following units could be used to measure the pressure of a gas? | null | a. pounds per inch, b. Newtons per square meter, c. kilograms per square meter, d. none of the above | b | T_4239 | text | null | How fast a chemical reaction occurs is called the reaction rate. Several factors affect the rate of a given chemical reaction. They include the: temperature of reactants. concentration of reactants. surface area of reactants. presence of a catalyst. | 0.655463 |
NDQ_016179 | which of the following units could be used to measure the pressure of a gas? | null | a. pounds per inch, b. Newtons per square meter, c. kilograms per square meter, d. none of the above | 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. | 0.653864 |
NDQ_016179 | which of the following units could be used to measure the pressure of a gas? | null | a. pounds per inch, b. Newtons per square meter, c. kilograms per square meter, d. none of the above | b | T_3939 | text | null | Water vapor is an example of a gas. A gas is matter that has neither a fixed volume nor a fixed shape. Instead, a gas takes both the volume and the shape of its container. It spreads out to take up all available space. You can see an example in Figure 4.6. | 0.647777 |
NDQ_016179 | which of the following units could be used to measure the pressure of a gas? | null | a. pounds per inch, b. Newtons per square meter, c. kilograms per square meter, d. none of the above | b | T_2237 | text | null | All known matter can be divided into a little more than 100 different substances called elements. | 0.647769 |
NDQ_016180 | particles of a gas have movement only when they are heated. | null | a. true, b. false | b | T_4470 | image | textbook_images/gases_22861.png | FIGURE 1.2 | 0.32613 |
NDQ_016180 | particles of a gas have movement only when they are heated. | null | a. true, b. false | b | DQ_011501 | image | question_images/states_of_matter_7614.png | states_of_matter_7614.png | 0.31339 |
NDQ_016180 | particles of a gas have movement only when they are heated. | null | a. true, b. false | b | DQ_010978 | image | question_images/convection_of_air_8045.png | convection_of_air_8045.png | 0.301692 |
NDQ_016180 | particles of a gas have movement only when they are heated. | null | a. true, b. false | b | T_3944 | image | textbook_images/solids_liquids_gases_and_plasmas_22541.png | FIGURE 4.8 Kinetic energy is needed to overcome the force of attraction between particles of the same substance. | 0.294593 |
NDQ_016180 | particles of a gas have movement only when they are heated. | null | a. true, b. false | b | DQ_002681 | image | question_images/radioactive_decay_7516.png | radioactive_decay_7516.png | 0.290474 |
NDQ_016180 | particles of a gas have movement only when they are heated. | null | a. true, b. false | b | T_3945 | image | textbook_images/behavior_of_gases_22544.png | FIGURE 4.11 Earths atmosphere exerts pressure. This pressure is greatest at sea level. Can you explain why? | 0.285795 |
NDQ_016180 | particles of a gas have movement only when they are heated. | null | a. true, b. false | b | DQ_011545 | image | question_images/states_of_matter_9258.png | states_of_matter_9258.png | 0.283546 |
NDQ_016180 | particles of a gas have movement only when they are heated. | null | a. true, b. false | b | DQ_002744 | image | question_images/radioactive_decay_8182.png | radioactive_decay_8182.png | 0.283512 |
NDQ_016180 | particles of a gas have movement only when they are heated. | null | a. true, b. false | b | DQ_011671 | image | question_images/state_change_7608.png | state_change_7608.png | 0.280614 |
NDQ_016180 | particles of a gas have movement only when they are heated. | null | a. true, b. false | b | T_4633 | image | textbook_images/modern_periodic_table_22960.png | FIGURE 1.2 | 0.27896 |
NDQ_016180 | particles of a gas have movement only when they are heated. | null | a. true, b. false | b | T_0216 | text | null | Energy travels through space or material. Heat energy is transferred in three ways: radiation, conduction, and convection. | 0.766714 |
NDQ_016180 | particles of a gas have movement only when they are heated. | null | a. true, b. false | b | T_0700 | text | null | Energy is the ability to do work. Fuel stores energy and can be released to do work. Heat is given off when fuel is burned. | 0.744606 |
NDQ_016180 | particles of a gas have movement only when they are heated. | null | a. true, b. false | b | T_3941 | text | null | Why do different states of matter have different properties? Its because of differences in energy at the level of atoms and molecules, the tiny particles that make up matter. | 0.744253 |
NDQ_016180 | particles of a gas have movement only when they are heated. | null | a. true, b. false | b | T_4715 | text | null | Compare and contrast the basic properties of matter, such as mass and volume. | 0.744007 |
NDQ_016180 | particles of a gas have movement only when they are heated. | null | a. true, b. false | b | T_3801 | text | null | Although all electromagnetic waves travel at the same speed, they may differ in their wavelength and frequency. | 0.740043 |
NDQ_016180 | particles of a gas have movement only when they are heated. | null | a. true, b. false | b | T_0721 | text | null | Natural gas is mostly methane. | 0.729857 |
NDQ_016180 | particles of a gas have movement only when they are heated. | null | a. true, b. false | b | T_3918 | text | null | Some properties of matter can be measured or observed only when matter undergoes a change to become an entirely different substance. These properties are called chemical properties. They include flammability and reactivity. | 0.727452 |
NDQ_016180 | particles of a gas have movement only when they are heated. | null | a. true, b. false | b | T_3946 | text | null | For a given amount of gas, scientists have discovered that the pressure, volume, and temperature of a gas are related in certain ways. Because these relationships always hold in nature, they are called laws. The laws are named for the scientists that discovered them. | 0.724101 |
NDQ_016180 | particles of a gas have movement only when they are heated. | null | a. true, b. false | 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. | 0.722049 |
NDQ_016180 | particles of a gas have movement only when they are heated. | null | a. true, b. false | b | T_0460 | text | null | Most pollutants enter the air when fossil fuels burn. Some are released when forests burn. Others evaporate into the air. | 0.721508 |
NDQ_016181 | amontons developed his law in the | null | a. 1500s., b. 1600s., c. 1700s., d. 1800s. | b | T_4292 | image | textbook_images/daltons_atomic_theory_22758.png | FIGURE 1.1 | 0.257974 |
NDQ_016181 | amontons developed his law in the | null | a. 1500s., b. 1600s., c. 1700s., d. 1800s. | b | T_4912 | image | textbook_images/technology_and_science_23109.png | FIGURE 1.3 | 0.254582 |
NDQ_016181 | amontons developed his law in the | null | a. 1500s., b. 1600s., c. 1700s., d. 1800s. | b | T_5014 | image | textbook_images/work_23180.png | FIGURE 1.1 | 0.250732 |
NDQ_016181 | amontons developed his law in the | null | a. 1500s., b. 1600s., c. 1700s., d. 1800s. | b | T_3850 | image | textbook_images/electric_charge_22466.png | FIGURE 23.5 Atoms are electrically neutral, but if they lose or gain electrons they become charged particles called ions. | 0.248341 |
NDQ_016181 | amontons developed his law in the | null | a. 1500s., b. 1600s., c. 1700s., d. 1800s. | b | T_4392 | image | textbook_images/electron_cloud_atomic_model_22809.png | FIGURE 1.3 | 0.246443 |
NDQ_016181 | amontons developed his law in the | null | a. 1500s., b. 1600s., c. 1700s., d. 1800s. | b | T_4929 | image | textbook_images/transfer_of_electric_charge_23124.png | FIGURE 1.1 | 0.246093 |
NDQ_016181 | amontons developed his law in the | null | a. 1500s., b. 1600s., c. 1700s., d. 1800s. | b | T_4318 | image | textbook_images/discovery_of_electromagnetism_22770.png | FIGURE 1.1 | 0.239095 |
NDQ_016181 | amontons developed his law in the | null | a. 1500s., b. 1600s., c. 1700s., d. 1800s. | b | T_3897 | image | textbook_images/electricity_and_magnetism_22500.png | FIGURE 25.1 Hans Christian Oersted was the scientist who discovered electromag- netism. | 0.239095 |
NDQ_016181 | amontons developed his law in the | null | a. 1500s., b. 1600s., c. 1700s., d. 1800s. | b | T_3996 | image | textbook_images/modern_atomic_theory_22574.png | FIGURE 5.17 This sketch represents the electron cloud model for helium. What does the electron cloud represent? | 0.234645 |
NDQ_016181 | amontons developed his law in the | null | a. 1500s., b. 1600s., c. 1700s., d. 1800s. | b | T_3595 | image | textbook_images/gravity_22276.png | FIGURE 13.23 In this diagram, "v" represents the forward velocity of the moon, and "a" represents the acceleration due to gravity. The line encircling Earth shows the moons actual orbit, which results from the combination of "v" and "a." | 0.231802 |
NDQ_016181 | amontons developed his law in the | null | a. 1500s., b. 1600s., c. 1700s., d. 1800s. | b | T_4823 | text | null | Newtons third law of motion is just one of many scientific laws. A scientific law is a statement describing what always happens under certain conditions. Other examples of laws in physical science include: Newtons first law of motion Newtons second law of motion Newtons law of universal gravitation Law of conservation of mass Law of conservation of energy Law of conservation of momentum | 0.603337 |
NDQ_016181 | amontons developed his law in the | null | a. 1500s., b. 1600s., c. 1700s., d. 1800s. | b | T_0698 | text | null | Energy changes form when something happens. But the total amount of energy always stays the same. The Law of Conservation of Energy says that energy cannot be created or destroyed. Scientists observed that energy could change from one form to another. They also observed that the overall amount of energy did not change. | 0.520316 |
NDQ_016181 | amontons developed his law in the | null | a. 1500s., b. 1600s., c. 1700s., d. 1800s. | b | T_3801 | text | null | Although all electromagnetic waves travel at the same speed, they may differ in their wavelength and frequency. | 0.51707 |
NDQ_016181 | amontons developed his law in the | null | a. 1500s., b. 1600s., c. 1700s., d. 1800s. | b | T_4885 | text | null | How fast or slow something moves is its speed. Speed determines how far something travels in a given amount of time. The SI unit for speed is meters per second (m/s). Speed may be constant, but often it varies from moment to moment. | 0.515745 |
NDQ_016181 | amontons developed his law in the | null | a. 1500s., b. 1600s., c. 1700s., d. 1800s. | b | T_2576 | text | null | Sequencing the human genome has increased our knowledge of genetic disorders. Genetic disorders are diseases caused by mutations. Many genetic disorders are caused by mutations in a single gene. Others are caused by abnormal numbers of chromosomes. | 0.505434 |
NDQ_016181 | amontons developed his law in the | null | a. 1500s., b. 1600s., c. 1700s., d. 1800s. | b | T_4999 | text | null | Wave speed is the distance a wave travels in a given amount of time, such as the number of meters it travels per second. Wave speed (and speed in general) can be represented by the equation: Speed = Distance Time | 0.50427 |
NDQ_016181 | amontons developed his law in the | null | a. 1500s., b. 1600s., c. 1700s., d. 1800s. | b | T_0726 | text | null | Nuclear energy is produced by splitting the nucleus of an atom. This releases a huge amount of energy. | 0.497145 |
NDQ_016181 | amontons developed his law in the | null | a. 1500s., b. 1600s., c. 1700s., d. 1800s. | b | T_3871 | text | null | We use electricity for many purposes. Devices such as lights, stoves, and stereos all use electricity and convert it to energy in other forms. However, devices may vary in how quickly they change electricity to other forms of energy. | 0.49484 |
NDQ_016181 | amontons developed his law in the | null | a. 1500s., b. 1600s., c. 1700s., d. 1800s. | b | T_4715 | text | null | Compare and contrast the basic properties of matter, such as mass and volume. | 0.494671 |
NDQ_016181 | amontons developed his law in the | null | a. 1500s., b. 1600s., c. 1700s., d. 1800s. | b | T_4893 | text | null | A given kind of matter has the same chemical makeup and the same chemical properties regardless of its state. Thats because state of matter is a physical property. As a result, when matter changes state, it doesnt become a different kind of substance. For example, water is still water whether it exists as ice, liquid water, or water vapor. | 0.493975 |
NDQ_016252 | the spoiler on a racecar causes air pressure to push the car forward. | null | a. true, b. false | b | T_3905 | image | textbook_images/generating_and_using_electricity_22508.png | FIGURE 25.9 This simple setup shows how electromagnetic induction occurs. | 0.26183 |
NDQ_016252 | the spoiler on a racecar causes air pressure to push the car forward. | null | a. true, b. false | b | T_4620 | image | textbook_images/microwaves_22951.png | FIGURE 1.3 | 0.254806 |
NDQ_016252 | the spoiler on a racecar causes air pressure to push the car forward. | null | a. true, b. false | b | T_4377 | image | textbook_images/electromagnetic_induction_22800.png | FIGURE 1.1 | 0.251652 |
NDQ_016252 | the spoiler on a racecar causes air pressure to push the car forward. | null | a. true, b. false | b | T_3622 | image | textbook_images/pressure_of_fluids_22300.png | FIGURE 15.10 How does Bernoullis law explain each of these examples? | 0.247995 |
NDQ_016252 | the spoiler on a racecar causes air pressure to push the car forward. | null | a. true, b. false | b | T_4260 | image | textbook_images/compound_machine_22737.png | FIGURE 1.1 | 0.244824 |
NDQ_016252 | the spoiler on a racecar causes air pressure to push the car forward. | null | a. true, b. false | b | T_3800 | image | textbook_images/properties_of_electromagnetic_waves_22425.png | FIGURE 21.4 Light slows down when it enters water from the air. This causes the wave to refract, or bend. | 0.236558 |
NDQ_016252 | the spoiler on a racecar causes air pressure to push the car forward. | null | a. true, b. false | b | T_0500 | image | textbook_images/early_space_exploration_20346.png | FIGURE 23.12 A rocket pushes in one direction so that it moves in the opposite direction. | 0.235653 |
NDQ_016252 | the spoiler on a racecar causes air pressure to push the car forward. | null | a. true, b. false | b | DQ_002545 | image | abc_question_images/earth_eclipses_11627.png | earth_eclipses_11627.png | 0.235009 |
NDQ_016252 | the spoiler on a racecar causes air pressure to push the car forward. | null | a. true, b. false | b | T_1544 | image | textbook_images/petroleum_power_21021.png | FIGURE 1.1 | 0.234271 |
NDQ_016252 | the spoiler on a racecar causes air pressure to push the car forward. | null | a. true, b. false | b | DQ_005624 | image | question_images/parts_chordate_body_7157.png | parts_chordate_body_7157.png | 0.230911 |
NDQ_016252 | the spoiler on a racecar causes air pressure to push the car forward. | null | a. true, b. false | b | T_4536 | text | null | Most cars have at least four cylinders connected to the crankshaft. Their pistons move up and down in sequence, one after the other. A powerful car may have eight pistons, and some race cars may have even more. The more cylinders a car engine has, the more powerful its engine can be. | 0.556854 |
NDQ_016252 | the spoiler on a racecar causes air pressure to push the car forward. | null | a. true, b. false | b | T_4535 | text | null | In a car, the piston in the engine is connected by the piston rod to the crankshaft. The crankshaft rotates when the piston moves up and down. The crankshaft, in turn, is connected to the driveshaft. When the crankshaft rotates, so does the driveshaft. The rotating driveshaft turns the wheels of the car. | 0.533972 |
NDQ_016252 | the spoiler on a racecar causes air pressure to push the car forward. | null | a. true, b. false | b | T_0453 | text | null | Poor air quality started to become a serious problem after the Industrial Revolution. The machines in factories burned coal. This released a lot of pollutants into the air. After 1900, motor vehicles became common. Cars and trucks burn gasoline, which adds greatly to air pollution. | 0.532803 |
NDQ_016252 | the spoiler on a racecar causes air pressure to push the car forward. | null | a. true, b. false | b | T_3801 | text | null | Although all electromagnetic waves travel at the same speed, they may differ in their wavelength and frequency. | 0.523392 |
NDQ_016252 | the spoiler on a racecar causes air pressure to push the car forward. | null | a. true, b. false | b | T_4889 | text | null | The speed of sound is the distance that sound waves travel in a given amount of time. Youll often see the speed of sound given as 343 meters per second. But thats just the speed of sound under a certain set of conditions, specifically, through dry air at 20 C. The speed of sound may be very different through other matter or at other temperatures. | 0.515309 |
NDQ_016252 | the spoiler on a racecar causes air pressure to push the car forward. | null | a. true, b. false | b | T_4322 | text | null | Distance is the length of the route between two points. The distance of a race, for example, is the length of the track between the starting and finishing lines. In a 100-meter sprint, that distance is 100 meters. | 0.513635 |
NDQ_016252 | the spoiler on a racecar causes air pressure to push the car forward. | null | a. true, b. false | b | T_4940 | text | null | Friction is the force that opposes motion between any surfaces that are in contact. There are four types of friction: static, sliding, rolling, and fluid friction. Static, sliding, and rolling friction occur between solid surfaces. Fluid friction occurs in liquids and gases. All four types of friction are described below. | 0.511206 |
NDQ_016252 | the spoiler on a racecar causes air pressure to push the car forward. | null | a. true, b. false | b | T_4885 | text | null | How fast or slow something moves is its speed. Speed determines how far something travels in a given amount of time. The SI unit for speed is meters per second (m/s). Speed may be constant, but often it varies from moment to moment. | 0.504609 |
NDQ_016252 | the spoiler on a racecar causes air pressure to push the car forward. | null | a. true, b. false | 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. | 0.500371 |
NDQ_016252 | the spoiler on a racecar causes air pressure to push the car forward. | null | a. true, b. false | b | T_0959 | text | null | The short term cycling of carbon begins with carbon dioxide (CO2 ) in the atmosphere. | 0.499461 |
Subsets and Splits
No community queries yet
The top public SQL queries from the community will appear here once available.