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_014178 | technology that records ground movements caused by earthquakes | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | f | T_0823 | image | textbook_images/measuring_and_predicting_earthquakes_20555.png | FIGURE 7.33 This seismograph records seismic waves. | 0.332762 |
NDQ_014178 | technology that records ground movements caused by earthquakes | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | f | T_0824 | image | textbook_images/measuring_and_predicting_earthquakes_20556.png | FIGURE 7.34 These seismograms show the arrival of P- waves and S-waves. through liquid. So the liquid outer core creates an S-wave shadow zone on the opposite side of the Earth from the quake. | 0.327425 |
NDQ_014178 | technology that records ground movements caused by earthquakes | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | f | T_1409 | image | textbook_images/measuring_earthquake_magnitude_20926.png | FIGURE 1.1 | 0.323649 |
NDQ_014178 | technology that records ground movements caused by earthquakes | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | f | DQ_001721 | image | question_images/seismic_waves_7555.png | seismic_waves_7555.png | 0.322348 |
NDQ_014178 | technology that records ground movements caused by earthquakes | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | f | DQ_001708 | image | question_images/seismic_waves_7552.png | seismic_waves_7552.png | 0.321127 |
NDQ_014178 | technology that records ground movements caused by earthquakes | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | f | DQ_001997 | image | question_images/faults_173.png | faults_173.png | 0.320996 |
NDQ_014178 | technology that records ground movements caused by earthquakes | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | f | DD_0052 | image | teaching_images/seismic_waves_7551.png | The diagram illustrates the cross section of the Earth's crust and what causes Earthquakes. A Fault is a fracture in the EarthÕs crust separating two blocks of the Earth's crust that slide against one another during an earthquake. The Epicenter is the point on the EarthÕs surface located directly over the Focus, where the most violent tremors are felt. The Focus is also a point in the EarthÕs crust where an earthquake is triggered. Also called the Hypocenter. Shown also are the Wave fronts or seismic waves which is a series of vibrations generated at the focus that disperse in all directions, causing shaking of the EarthÕs surface. A fault scarp is a small step or offset on the ground surface where one side of a fault has moved vertically with respect to the other. They are characterized by uneven landscapes. Fault scarps may be only a few centimeters or many meters high. | 0.32084 |
NDQ_014178 | technology that records ground movements caused by earthquakes | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | f | DQ_001434 | image | abc_question_images/seismic_waves_18192.png | seismic_waves_18192.png | 0.320049 |
NDQ_014178 | technology that records ground movements caused by earthquakes | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | f | DQ_001985 | image | question_images/faults_1704.png | faults_1704.png | 0.31767 |
NDQ_014178 | technology that records ground movements caused by earthquakes | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | f | DQ_001699 | image | question_images/seismic_waves_1705.png | seismic_waves_1705.png | 0.31751 |
NDQ_014178 | technology that records ground movements caused by earthquakes | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | f | T_1080 | text | null | An earthquake is sudden ground movement caused by the sudden release of energy stored in rocks. Earthquakes happen when so much stress builds up in the rocks that the rocks rupture. The energy is transmitted by seismic waves. Earthquakes can be so small they go completely unnoticed, or so large that it can take years for a region to recover. | 0.768116 |
NDQ_014178 | technology that records ground movements caused by earthquakes | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | f | T_1648 | text | null | People have always tried to quantify the size of and damage done by earthquakes. Since early in the 20th century, there have been three methods. What are the strengths and weaknesses of each? | 0.757276 |
NDQ_014178 | technology that records ground movements caused by earthquakes | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | f | T_0804 | text | null | Where an earthquake takes place is described by its focus and epicenter. | 0.749479 |
NDQ_014178 | technology that records ground movements caused by earthquakes | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | f | T_1566 | text | null | Scientists are a long way from being able to predict earthquakes. A good prediction must be detailed and accurate. Where will the earthquake occur? When will it occur? What will be the magnitude of the quake? With a good prediction authorities could get people to evacuate. An unnecessary evacuation is expensive and causes people not to believe authorities the next time an evacuation is ordered. | 0.742382 |
NDQ_014178 | technology that records ground movements caused by earthquakes | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | f | T_0813 | text | null | Seismic waves are the energy from earthquakes. Seismic waves move outward in all directions away from their source. Each type of seismic wave travels at different speeds in different materials. All seismic waves travel through rock, but not all travel through liquid or gas. Geologists study seismic waves to learn about earthquakes and the Earths interior. | 0.737246 |
NDQ_014178 | technology that records ground movements caused by earthquakes | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | f | T_1096 | text | null | Deadly earthquakes occur at transform plate boundaries. Transform faults have shallow focus earthquakes. Why do you think this is so? | 0.731871 |
NDQ_014178 | technology that records ground movements caused by earthquakes | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | f | T_0815 | text | null | There are two major types of seismic waves. Body waves travel through the Earths interior. Surface waves travel along the ground surface. In an earthquake, body waves are responsible for sharp jolts. Surface waves are responsible for rolling motions that do most of the damage in an earthquake. | 0.728148 |
NDQ_014178 | technology that records ground movements caused by earthquakes | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | f | T_1649 | text | null | Earthquakes are described in terms of what nearby residents felt and the damage that was done to nearby structures. What factors would go into determining the damage that was done and what the residents felt in a region? | 0.727592 |
NDQ_014178 | technology that records ground movements caused by earthquakes | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | f | T_0822 | text | null | Seismic waves are measured on a seismograph. Seismographs contain a lot of information, and not just about earthquakes. | 0.716444 |
NDQ_014178 | technology that records ground movements caused by earthquakes | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | f | T_0811 | text | null | Earthquakes also occur at divergent plate boundaries. At mid-ocean ridges, these earthquakes tend to be small and shallow focus because the plates are thin, young, and hot. Earthquakes in the oceans are usually far from land, so they have little effect on peoples lives. On land, where continents are rifting apart, earthquakes are larger and stronger. | 0.709498 |
NDQ_014179 | development of new technology | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | b | T_4912 | image | textbook_images/technology_and_science_23109.png | FIGURE 1.3 | 0.2404 |
NDQ_014179 | development of new technology | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | b | DQ_011445 | image | question_images/electromagnetism_6791.png | electromagnetism_6791.png | 0.236703 |
NDQ_014179 | development of new technology | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | b | T_4399 | image | textbook_images/electronic_device_22814.png | FIGURE 1.1 | 0.232706 |
NDQ_014179 | development of new technology | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | b | T_3882 | image | textbook_images/electronics_22483.png | FIGURE 23.22 This illustration shows how the parts of a computer fit together. | 0.227839 |
NDQ_014179 | development of new technology | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | b | T_4916 | image | textbook_images/technology_careers_23112.png | FIGURE 1.1 | 0.22589 |
NDQ_014179 | development of new technology | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | b | T_0502 | image | textbook_images/early_space_exploration_20348.png | FIGURE 23.14 Robert Goddard with the first American rocket to use liquid fuel. This rocket was launched in 1926. | 0.220968 |
NDQ_014179 | development of new technology | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | b | T_0348 | image | textbook_images/the_human_population_20224.png | FIGURE 18.17 Growth of the human population. Until recently, the human population grew very slowly. | 0.21512 |
NDQ_014179 | development of new technology | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | b | DQ_007886 | image | question_images/blastocyst_9025.png | blastocyst_9025.png | 0.20772 |
NDQ_014179 | development of new technology | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | b | DQ_005064 | image | question_images/life_cycles_2257.png | life_cycles_2257.png | 0.20485 |
NDQ_014179 | development of new technology | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | b | DQ_005163 | image | question_images/life_cycles_2373.png | life_cycles_2373.png | 0.204738 |
NDQ_014179 | development of new technology | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | b | T_3762 | text | null | The development of new technology is called technological design. It is similar to scientific investigation. Both processes use evidence and logic to solve problems. | 0.714325 |
NDQ_014179 | development of new technology | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | b | T_2579 | text | null | Treating genetic disorders is one use of biotechnology. Biotechnology is the use of technology to change the genetic makeup of living things for human purposes. Its also called genetic engineering. Besides treating genetic disorders, biotechnology is used to change organisms so they are more useful to people. | 0.530428 |
NDQ_014179 | development of new technology | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | b | T_2534 | text | null | Both types of reproduction have certain advantages. | 0.50545 |
NDQ_014179 | development of new technology | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | b | T_3382 | text | null | Modern science is a way of understanding the physical world, based on observable evidence, reasoning, and repeated testing. That means scientists explain the world based on their own observations. If they develop new ideas about the way the world works, they set up a way to test these new ideas. | 0.503101 |
NDQ_014179 | development of new technology | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | b | T_3907 | text | null | Two important devices depend on electromagnetic induction: electric generators and electric transformers. Both devices play critical roles in producing and regulating the electric current we depend on in our daily lives. | 0.500598 |
NDQ_014179 | development of new technology | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | 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. | 0.498255 |
NDQ_014179 | development of new technology | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | b | T_4644 | text | null | Science is more about gaining knowledge than it is about simply having knowledge. Science is a way of learning about the natural world that is based on evidence and logic. In other words, science is a process, not just a body of facts. Through the process of science, our knowledge of the world advances. | 0.495947 |
NDQ_014179 | development of new technology | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | b | T_0726 | text | null | Nuclear energy is produced by splitting the nucleus of an atom. This releases a huge amount of energy. | 0.490484 |
NDQ_014179 | development of new technology | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | b | T_2573 | text | null | A species genome consists of all of its genetic information. The human genome consists of the complete set of genes in the human organism. Its all the DNA of a human being. | 0.485686 |
NDQ_014179 | development of new technology | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | b | T_4844 | text | null | An electric circuit consists of at least one closed loop through which electric current can flow. Every circuit has a voltage source such as a battery and a conductor such as metal wire. A circuit may have other parts as well, such as lights and switches. In addition, a circuit may consist of one loop or two loops. | 0.482663 |
NDQ_014180 | application of knowledge to real-world problems | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | a | DQ_001254 | image | question_images/cycle_rock_6728.png | cycle_rock_6728.png | 0.239048 |
NDQ_014180 | application of knowledge to real-world problems | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | a | T_3763 | image | textbook_images/technology_22404.png | FIGURE 2.13 This flowchart represents the process of technological design. How does the tech- nological design process resemble a sci- entific investigation? | 0.227291 |
NDQ_014180 | application of knowledge to real-world problems | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | a | T_5014 | image | textbook_images/work_23180.png | FIGURE 1.1 | 0.227251 |
NDQ_014180 | application of knowledge to real-world problems | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | a | T_4909 | image | textbook_images/technological_design_process_23106.png | FIGURE 1.1 | 0.227018 |
NDQ_014180 | application of knowledge to real-world problems | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | a | DQ_002882 | image | abc_question_images/seasons_11357.png | seasons_11357.png | 0.224738 |
NDQ_014180 | application of knowledge to real-world problems | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | a | DQ_008502 | image | question_images/food_chains_webs_6038.png | food_chains_webs_6038.png | 0.216981 |
NDQ_014180 | application of knowledge to real-world problems | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | a | T_3628 | image | textbook_images/work_22307.png | FIGURE 16.2 Carrying a box while walking does not result in work being done. Work is done only when the box is first lifted up from the ground. Can you explain why? | 0.212315 |
NDQ_014180 | application of knowledge to real-world problems | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | a | T_4511 | image | textbook_images/hydrocarbons_22886.png | FIGURE 1.1 | 0.21193 |
NDQ_014180 | application of knowledge to real-world problems | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | a | T_1758 | image | textbook_images/testing_hypotheses_21155.png | FIGURE 1.1 Click image to the left or use the URL below. URL: https://www.ck12.org/flx/render/embeddedobject/185963 | 0.2113 |
NDQ_014180 | application of knowledge to real-world problems | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | a | DQ_002892 | image | abc_question_images/seasons_12629.png | seasons_12629.png | 0.209789 |
NDQ_014180 | application of knowledge to real-world problems | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | a | T_4644 | text | null | Science is more about gaining knowledge than it is about simply having knowledge. Science is a way of learning about the natural world that is based on evidence and logic. In other words, science is a process, not just a body of facts. Through the process of science, our knowledge of the world advances. | 0.664605 |
NDQ_014180 | application of knowledge to real-world problems | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | a | T_4830 | text | null | Investigations are at the heart of science. They are how scientists add to scientific knowledge and gain a better understanding of the world. Scientific investigations produce evidence that helps answer questions. Even if the evidence cannot provide answers, it may still be useful. It may lead to new questions for investigation. As more knowledge is discovered, science advances. | 0.580445 |
NDQ_014180 | application of knowledge to real-world problems | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | a | T_2579 | text | null | Treating genetic disorders is one use of biotechnology. Biotechnology is the use of technology to change the genetic makeup of living things for human purposes. Its also called genetic engineering. Besides treating genetic disorders, biotechnology is used to change organisms so they are more useful to people. | 0.578508 |
NDQ_014180 | application of knowledge to real-world problems | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | a | T_1106 | text | null | Despite these problems, there is a rich fossil record. How does an organism become fossilized? | 0.568292 |
NDQ_014180 | application of knowledge to real-world problems | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | a | T_0897 | text | null | Soil is a renewable resource. But it is only renewable if we take care of it. Natural events can degrade soil. These events include droughts, floods, insect plagues, or diseases that damage soil ecosystems. Human activities can also degrade soil. There are many ways in which people neglect or abuse this important resource. | 0.567847 |
NDQ_014180 | application of knowledge to real-world problems | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | a | T_1600 | text | null | Water pollution can be reduced in two ways: Keep the water from becoming polluted. Clean water that is already polluted. | 0.566957 |
NDQ_014180 | application of knowledge to real-world problems | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | a | T_1698 | text | null | How well soil forms and what type of soil forms depends on several different factors, which are described below. | 0.563382 |
NDQ_014180 | application of knowledge to real-world problems | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | a | T_3382 | text | null | Modern science is a way of understanding the physical world, based on observable evidence, reasoning, and repeated testing. That means scientists explain the world based on their own observations. If they develop new ideas about the way the world works, they set up a way to test these new ideas. | 0.562906 |
NDQ_014180 | application of knowledge to real-world problems | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | a | T_0638 | text | null | To understand minerals, we must first understand matter. Matter is the substance that physical objects are made of. | 0.561626 |
NDQ_014180 | application of knowledge to real-world problems | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | a | T_3762 | text | null | The development of new technology is called technological design. It is similar to scientific investigation. Both processes use evidence and logic to solve problems. | 0.55846 |
NDQ_014181 | technology that uses sound waves to map the ocean floor | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | e | T_0183 | image | textbook_images/the_ocean_floor_20122.png | FIGURE 14.19 Sound waves travel through ocean water, but they bounce off the ocean floor. They move through ocean water at a known speed. Can you use these facts to explain how sonar works? | 0.39994 |
NDQ_014181 | technology that uses sound waves to map the ocean floor | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | e | T_0766 | image | textbook_images/seafloor_spreading_20504.png | FIGURE 6.9 A ship sends out sound waves to create a picture of the seafloor below it. The echo sounder pictured has many beams and as a result it creates a three dimen- sional map of the seafloor beneath the ship. Early echo sounders had only a single beam and created a line of depth measurements. | 0.349623 |
NDQ_014181 | technology that uses sound waves to map the ocean floor | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | e | T_0373 | image | textbook_images/introduction_to_earths_surface_20250.png | FIGURE 2.10 A chain of seamounts off the coast of New England (left). Oceanographers mapped one of these seamounts, called Bear Seamount, in great detail (right). | 0.328852 |
NDQ_014181 | technology that uses sound waves to map the ocean floor | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | e | T_0842 | image | textbook_images/volcanic_activity_20568.png | FIGURE 8.4 A bathymetric map of Loihi seamount. Loihi will be the next shield volcano in the Hawaiian-Emperor chain. | 0.32519 |
NDQ_014181 | technology that uses sound waves to map the ocean floor | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | e | T_1046 | image | textbook_images/deep_ocean_currents_20688.png | FIGURE 1.2 | 0.321139 |
NDQ_014181 | technology that uses sound waves to map the ocean floor | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | e | DQ_000415 | image | question_images/parts_ocean_floor_7241.png | parts_ocean_floor_7241.png | 0.318119 |
NDQ_014181 | technology that uses sound waves to map the ocean floor | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | e | T_0373 | image | textbook_images/introduction_to_earths_surface_20251.png | FIGURE 2.11 Map of the mid-ocean ridge system (yellow-green) in Earths oceans. | 0.317207 |
NDQ_014181 | technology that uses sound waves to map the ocean floor | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | e | T_0185 | image | textbook_images/the_ocean_floor_20125.png | FIGURE 14.22 The features of the ocean floor. This dia- gram has a lot of vertical exaggeration. | 0.313171 |
NDQ_014181 | technology that uses sound waves to map the ocean floor | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | e | T_0841 | image | textbook_images/volcanic_activity_20566.png | FIGURE 8.2 The Pacific Ocean basin is a good place to look for volcanoes. The light blue wavy line that goes up the right-center of the diagram is the East Pacific Rise. Trenches due to subduction are on the west and east sides of the plate. Hawaii trends southeast-northwest near the center-top of the image. | 0.310568 |
NDQ_014181 | technology that uses sound waves to map the ocean floor | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | e | T_1394 | image | textbook_images/magnetic_evidence_for_seafloor_spreading_20913.png | FIGURE 1.2 | 0.310451 |
NDQ_014181 | technology that uses sound waves to map the ocean floor | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | e | T_0182 | text | null | Scientists study the ocean floor in various ways. Scientists or their devices may actually travel to the ocean floor. Or they may study the ocean floor from the surface. One way is with a tool called sonar. | 0.721153 |
NDQ_014181 | technology that uses sound waves to map the ocean floor | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | e | T_1893 | text | null | Waves have been discussed in previous concepts in several contexts: seismic waves traveling through the planet, sound waves traveling through seawater, and ocean waves eroding beaches. Waves transfer energy, and the size of a wave and the distance it travels depends on the amount of energy that it carries. This concept studies the most familiar waves, those on the oceans surface. | 0.67387 |
NDQ_014181 | technology that uses sound waves to map the ocean floor | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | e | T_0187 | text | null | The ocean floor is home to many species of living things. Some from shallow water are used by people for food. Clams and some fish are among the many foods we get from the ocean floor. Some living things on the ocean floor are sources of human medicines. For example, certain bacteria on the ocean floor produce chemicals that fight cancer. | 0.654984 |
NDQ_014181 | technology that uses sound waves to map the ocean floor | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | e | T_0186 | text | null | The ocean floor is rich in resources. The resources include both living and nonliving things. | 0.653779 |
NDQ_014181 | technology that uses sound waves to map the ocean floor | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | e | T_0815 | text | null | There are two major types of seismic waves. Body waves travel through the Earths interior. Surface waves travel along the ground surface. In an earthquake, body waves are responsible for sharp jolts. Surface waves are responsible for rolling motions that do most of the damage in an earthquake. | 0.652778 |
NDQ_014181 | technology that uses sound waves to map the ocean floor | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | e | T_1794 | text | null | Tsunami are deadly ocean waves from the sharp jolt of an undersea earthquake. Less frequently, these waves can be generated by other shocks to the sea, like a meteorite impact. Fortunately, few undersea earthquakes, and even fewer meteorite impacts, generate tsunami. | 0.649711 |
NDQ_014181 | technology that uses sound waves to map the ocean floor | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | e | T_0813 | text | null | Seismic waves are the energy from earthquakes. Seismic waves move outward in all directions away from their source. Each type of seismic wave travels at different speeds in different materials. All seismic waves travel through rock, but not all travel through liquid or gas. Geologists study seismic waves to learn about earthquakes and the Earths interior. | 0.646798 |
NDQ_014181 | technology that uses sound waves to map the ocean floor | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | e | T_0954 | text | null | Oceanography is the study of everything in the ocean environment, which covers about 70% of the Earths surface. Recent technology has allowed people and probes to venture to the deepest parts of the ocean, but much of the ocean remains unexplored. Marine geologists learn about the rocks and geologic processes of the ocean basins. | 0.639816 |
NDQ_014181 | technology that uses sound waves to map the ocean floor | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | e | T_0822 | text | null | Seismic waves are measured on a seismograph. Seismographs contain a lot of information, and not just about earthquakes. | 0.638713 |
NDQ_014181 | technology that uses sound waves to map the ocean floor | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | e | T_3801 | text | null | Although all electromagnetic waves travel at the same speed, they may differ in their wavelength and frequency. | 0.624983 |
NDQ_014182 | limit on technological design | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | d | DQ_011973 | image | question_images/lewis_dot_diagrams_9135.png | lewis_dot_diagrams_9135.png | 0.239558 |
NDQ_014182 | limit on technological design | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | d | DQ_011075 | image | abc_question_images/waves_19290.png | waves_19290.png | 0.239392 |
NDQ_014182 | limit on technological design | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | d | DQ_011123 | image | abc_question_images/parts_telescope_17286.png | parts_telescope_17286.png | 0.237134 |
NDQ_014182 | limit on technological design | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | d | DD_0208 | image | teaching_images/velocity_time_graphs_8216.png | As time increases, distance increases as well. Over time, there is a steady speed and then a straight line indicates a stationary moment in time. It then returns to the start. | 0.235193 |
NDQ_014182 | limit on technological design | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | d | DQ_000308 | image | question_images/ocean_waves_7119.png | ocean_waves_7119.png | 0.234924 |
NDQ_014182 | limit on technological design | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | d | DQ_010923 | image | question_images/simple_machines_7560.png | simple_machines_7560.png | 0.234558 |
NDQ_014182 | limit on technological design | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | d | DQ_010849 | image | question_images/velocity_time_graphs_8210.png | velocity_time_graphs_8210.png | 0.234283 |
NDQ_014182 | limit on technological design | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | d | DQ_010877 | image | question_images/velocity_time_graphs_8218.png | velocity_time_graphs_8218.png | 0.231583 |
NDQ_014182 | limit on technological design | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | d | T_4695 | image | textbook_images/optical_instruments_23000.png | FIGURE 1.5 | 0.230475 |
NDQ_014182 | limit on technological design | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | d | T_3844 | image | textbook_images/optics_22457.png | FIGURE 22.22 A laser light uses two concave mirrors to focus photons of colored light. | 0.230317 |
NDQ_014182 | limit on technological design | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | d | T_3762 | text | null | The development of new technology is called technological design. It is similar to scientific investigation. Both processes use evidence and logic to solve problems. | 0.511617 |
NDQ_014182 | limit on technological design | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | d | T_3768 | text | null | The goal of technology is to solve peoples problems. Therefore, the problems of society generally set the direction that technology takes. Technology, in turn, affects society. It may make peoples lives easier or healthier. Two examples are described in Figure 2.15. You can read about other examples at these URLs: http://mezocore.wordpress.com/ | 0.389466 |
NDQ_014182 | limit on technological design | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | d | T_4854 | text | null | Examples of machines that increase the distance over which force is applied are leaf rakes and hammers (see Figure which the force is applied, but it reduces the strength of the force. | 0.384893 |
NDQ_014182 | limit on technological design | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | d | 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. | 0.376375 |
NDQ_014182 | limit on technological design | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | d | T_2604 | text | null | Individuals dont evolve. Their alleles dont change over time. The unit of microevolution is the population. | 0.375681 |
NDQ_014182 | limit on technological design | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | d | T_4844 | text | null | An electric circuit consists of at least one closed loop through which electric current can flow. Every circuit has a voltage source such as a battery and a conductor such as metal wire. A circuit may have other parts as well, such as lights and switches. In addition, a circuit may consist of one loop or two loops. | 0.373798 |
NDQ_014182 | limit on technological design | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | d | 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 | 0.373594 |
NDQ_014182 | limit on technological design | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | d | T_4438 | text | null | A combustion engine is a complex machine that burns fuel to produce thermal energy and then uses the thermal energy to do work. There are two types of combustion engines: external and internal. A steam engine is an external combustion engine. | 0.368239 |
NDQ_014182 | limit on technological design | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | d | 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. | 0.366414 |
NDQ_014182 | limit on technological design | null | a. technology, b. technological design, c. engineer, d. constraint, e. sonar, f. seismometer, g. spectrometer | d | T_2579 | text | null | Treating genetic disorders is one use of biotechnology. Biotechnology is the use of technology to change the genetic makeup of living things for human purposes. Its also called genetic engineering. Besides treating genetic disorders, biotechnology is used to change organisms so they are more useful to people. | 0.366097 |
Subsets and Splits
No community queries yet
The top public SQL queries from the community will appear here once available.