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L_0963 | neutrons | T_4649 | FIGURE 1.1 | image | textbook_images/neutrons_22969.png |
L_0963 | neutrons | T_4651 | FIGURE 1.2 | image | textbook_images/neutrons_22970.png |
L_0964 | newtons first law | T_4653 | FIGURE 1.1 | image | textbook_images/newtons_first_law_22971.png |
L_0964 | newtons first law | T_4653 | FIGURE 1.2 | image | textbook_images/newtons_first_law_22972.png |
L_0964 | newtons first law | T_4655 | FIGURE 1.3 | image | textbook_images/newtons_first_law_22973.png |
L_0965 | newtons law of gravity | T_4658 | FIGURE 1.1 | image | textbook_images/newtons_law_of_gravity_22975.png |
L_0966 | newtons second law | T_4659 | FIGURE 1.1 | image | textbook_images/newtons_second_law_22976.png |
L_0967 | newtons third law | T_4662 | FIGURE 1.1 | image | textbook_images/newtons_third_law_22977.png |
L_0968 | noble gases | T_4664 | FIGURE 1.1 | image | textbook_images/noble_gases_22978.png |
L_0968 | noble gases | T_4667 | FIGURE 1.2 Q: How does argon prevent the problems of early light bulbs? | image | textbook_images/noble_gases_22979.png |
L_0968 | noble gases | T_4667 | FIGURE 1.3 | image | textbook_images/noble_gases_22980.png |
L_0969 | nonmetals | T_4670 | FIGURE 1.1 | image | textbook_images/nonmetals_22982.png |
L_0969 | nonmetals | T_4670 | FIGURE 1.2 such as the metal lithium or sodium. As a result, fluorine is highly reactive. In fact, reactions with fluorine are often explosive. Neon, on the other hand, already has a full outer energy level. It is already very stable and never reacts with other elements. It neither accepts nor gives up electrons. Neon doesnt even react with fluorine, which reacts with all other elements except helium. | image | textbook_images/nonmetals_22983.png |
L_0970 | nuclear fission | T_4672 | FIGURE 1.1 | image | textbook_images/nuclear_fission_22984.png |
L_0970 | nuclear fission | T_4673 | FIGURE 1.2 | image | textbook_images/nuclear_fission_22985.png |
L_0970 | nuclear fission | T_4675 | FIGURE 1.3 | image | textbook_images/nuclear_fission_22986.png |
L_0970 | nuclear fission | T_4675 | FIGURE 1.4 | image | textbook_images/nuclear_fission_22987.png |
L_0971 | nuclear fusion | T_4677 | FIGURE 1.1 Nuclear Fusion | image | textbook_images/nuclear_fusion_22988.png |
L_0971 | nuclear fusion | T_4678 | FIGURE 1.2 | image | textbook_images/nuclear_fusion_22989.png |
L_0971 | nuclear fusion | T_4679 | FIGURE 1.3 | image | textbook_images/nuclear_fusion_22990.png |
L_0972 | nucleic acid classification | T_4681 | FIGURE 1.1 | image | textbook_images/nucleic_acid_classification_22991.png |
L_0972 | nucleic acid classification | T_4683 | FIGURE 1.2 | image | textbook_images/nucleic_acid_classification_22992.png |
L_0972 | nucleic acid classification | DD_0270 | The diagram shows the structure of deoxyribonucleic acid (DNA) which carries the genetic information of organisms. DNA is made up of a double helix of two complementary strands. The strands of the double helix are anti-parallel with one being 5' to 3', and the opposite strand 3' to 5'. Each single strand of DNA is a chain of four types of nucleotides. The four types of nucleotide correspond to the four nucleobases adenine, cytosine, guanine, and thymine, commonly abbreviated as A,C, G and T. Adenine pairs with thymine (two hydrogen bonds), and guanine pairs with cytosine (three hydrogen bonds). During DNA replication, the parent DNA unwinds and each parental strand serves as a template for replication of new strands. Nucleobases are matched to synthesize the new daughter strands. | image | teaching_images/dna_6763.png |
L_0972 | nucleic acid classification | DD_0271 | This diagram shows the structure of a DNA or deoxyribonucleic acid . Deoxyribonucleic acid is a molecule that carries the genetic instructions used in the growth, development, functioning and reproduction of all known living organisms and many viruses. Most DNA molecules consist of two strands coiled around each other to form a double helix.The two DNA strands are composed of simpler units called nucleotides. Each nucleotide is composed of one of four nitrogen-containing compoundsâeither cytosine (C), guanine (G), adenine (A), or thymine (T). The nucleotides are joined to one another in a chain by covalent bonds between the sugar of one nucleotide and the phosphate of the next, resulting in an alternating sugar-phosphate backbone. | image | teaching_images/dna_8052.png |
L_0976 | optical instruments | T_4692 | FIGURE 1.1 | image | textbook_images/optical_instruments_22996.png |
L_0976 | optical instruments | T_4693 | FIGURE 1.2 | image | textbook_images/optical_instruments_22997.png |
L_0976 | optical instruments | T_4694 | FIGURE 1.3 | image | textbook_images/optical_instruments_22998.png |
L_0976 | optical instruments | T_4695 | FIGURE 1.4 | image | textbook_images/optical_instruments_22999.png |
L_0976 | optical instruments | T_4695 | FIGURE 1.5 | image | textbook_images/optical_instruments_23000.png |
L_0976 | optical instruments | T_4696 | FIGURE 1.6 | image | textbook_images/optical_instruments_23001.png |
L_0977 | orbital motion | T_4698 | FIGURE 1.1 | image | textbook_images/orbital_motion_23002.png |
L_0977 | orbital motion | T_4698 | FIGURE 1.2 | image | textbook_images/orbital_motion_23003.png |
L_0979 | ph concept | T_4705 | FIGURE 1.1 | image | textbook_images/ph_concept_23007.png |
L_0979 | ph concept | T_4706 | FIGURE 1.2 | image | textbook_images/ph_concept_23008.png |
L_0979 | ph concept | T_4706 | FIGURE 1.3 | image | textbook_images/ph_concept_23009.png |
L_0980 | photosynthesis reactions | T_4708 | FIGURE 1.1 | image | textbook_images/photosynthesis_reactions_23010.png |
L_0980 | photosynthesis reactions | T_4708 | FIGURE 1.2 The green streaks on this very blue lake are photosynthetic bacteria called cyanobacteria. | image | textbook_images/photosynthesis_reactions_23011.png |
L_0985 | position time graphs | T_4726 | FIGURE 1.1 | image | textbook_images/position_time_graphs_23020.png |
L_0985 | position time graphs | T_4726 | FIGURE 1.2 | image | textbook_images/position_time_graphs_23021.png |
L_0986 | potential energy | T_4729 | FIGURE 1.1 | image | textbook_images/potential_energy_23022.png |
L_0986 | potential energy | T_4731 | FIGURE 1.2 | image | textbook_images/potential_energy_23023.png |
L_0986 | potential energy | T_4731 | FIGURE 1.3 | image | textbook_images/potential_energy_23024.png |
L_0987 | power | T_4732 | FIGURE 1.1 | image | textbook_images/power_23025.png |
L_0987 | power | T_4735 | FIGURE 1.2 | image | textbook_images/power_23026.png |
L_0987 | power | T_4735 | FIGURE 1.3 | image | textbook_images/power_23027.png |
L_0989 | projectile motion | T_4742 | FIGURE 1.1 | image | textbook_images/projectile_motion_23031.png |
L_0989 | projectile motion | T_4742 | FIGURE 1.2 | image | textbook_images/projectile_motion_23032.png |
L_0989 | projectile motion | T_4742 | FIGURE 1.3 | image | textbook_images/projectile_motion_23033.png |
L_0990 | properties of acids | T_4744 | FIGURE 1.1 Hydrochloric acid reacting with the metal zinc. | image | textbook_images/properties_of_acids_23034.png |
L_0990 | properties of acids | T_4745 | FIGURE 1.2 | image | textbook_images/properties_of_acids_23035.png |
L_0990 | properties of acids | T_4747 | FIGURE 1.3 Nitric acid and Phosphoric acid: Both nitric acid and phosphoric acid are used to make fertilizer. Hydrochloric acid: Hy- drochloric acid is used to clean swimming pools, bricks, and concrete. Sulfuric acid: Sulfuric Acid is an important component of car batteries. | image | textbook_images/properties_of_acids_23036.png |
L_0991 | properties of bases | T_4750 | FIGURE 1.1 | image | textbook_images/properties_of_bases_23037.png |
L_0991 | properties of bases | T_4752 | FIGURE 1.2 | image | textbook_images/properties_of_bases_23038.png |
L_0992 | properties of electromagnetic waves | T_4754 | FIGURE 1.1 | image | textbook_images/properties_of_electromagnetic_waves_23039.png |
L_0994 | protein classification | T_4760 | FIGURE 1.1 | image | textbook_images/protein_classification_23042.png |
L_0994 | protein classification | T_4761 | FIGURE 1.2 The blood protein hemoglobin binds with oxygen and carries it from the lungs to all the bodys cells. Heme is a small molecule containing iron that is part of the larger hemoglobin molecule. Oxygen binds to the iron in heme. | image | textbook_images/protein_classification_23043.png |
L_0997 | radio waves | T_4769 | FIGURE 1.1 | image | textbook_images/radio_waves_23045.png |
L_0997 | radio waves | T_4770 | FIGURE 1.2 | image | textbook_images/radio_waves_23046.png |
L_0999 | radioactivity | T_4778 | FIGURE 1.1 | image | textbook_images/radioactivity_23048.png |
L_1000 | radioisotopes | T_4780 | FIGURE 1.1 | image | textbook_images/radioisotopes_23049.png |
L_1002 | reactants and products | T_4788 | FIGURE 1.1 | image | textbook_images/reactants_and_products_23051.png |
L_1003 | recognizing chemical reactions | T_4790 | FIGURE 1.1 | image | textbook_images/recognizing_chemical_reactions_23052.png |
L_1003 | recognizing chemical reactions | T_4790 | FIGURE 1.2 | image | textbook_images/recognizing_chemical_reactions_23053.png |
L_1003 | recognizing chemical reactions | T_4790 | FIGURE 1.3 | image | textbook_images/recognizing_chemical_reactions_23054.png |
L_1007 | rutherfords atomic model | T_4800 | FIGURE 1.1 | image | textbook_images/rutherfords_atomic_model_23057.png |
L_1007 | rutherfords atomic model | T_4800 | FIGURE 1.2 | image | textbook_images/rutherfords_atomic_model_23058.png |
L_1007 | rutherfords atomic model | T_4802 | FIGURE 1.3 | image | textbook_images/rutherfords_atomic_model_23059.png |
L_1009 | saturated hydrocarbons | T_4807 | FIGURE 1.1 | image | textbook_images/saturated_hydrocarbons_23060.png |
L_1009 | saturated hydrocarbons | T_4808 | FIGURE 1.2 4. Compare and contrast straight-chain, branched-chain, and cyclic alkanes. | image | textbook_images/saturated_hydrocarbons_23061.png |
L_1019 | scope of chemistry | T_4837 | FIGURE 1.1 | image | textbook_images/scope_of_chemistry_23071.png |
L_1021 | scope of physics | T_4841 | FIGURE 1.1 | image | textbook_images/scope_of_physics_23073.png |
L_1022 | screw | T_4842 | FIGURE 1.1 | image | textbook_images/screw_23074.png |
L_1022 | screw | T_4843 | FIGURE 1.2 | image | textbook_images/screw_23075.png |
L_1025 | simple machines | T_4853 | FIGURE 1.1 | image | textbook_images/simple_machines_23076.png |
L_1025 | simple machines | T_4856 | FIGURE 1.2 | image | textbook_images/simple_machines_23077.png |
L_1025 | simple machines | T_4856 | FIGURE 1.3 | image | textbook_images/simple_machines_23078.png |
L_1025 | simple machines | T_4856 | FIGURE 1.4 | image | textbook_images/simple_machines_23079.png |
L_1032 | sound waves | T_4876 | FIGURE 1.1 | image | textbook_images/sound_waves_23092.png |
L_1033 | sources of visible light | T_4880 | FIGURE 1.1 | image | textbook_images/sources_of_visible_light_23094.png |
L_1033 | sources of visible light | T_4882 | FIGURE 1.2 | image | textbook_images/sources_of_visible_light_23095.png |
L_1033 | sources of visible light | T_4882 | FIGURE 1.3 | image | textbook_images/sources_of_visible_light_23096.png |
L_1035 | speed | T_4887 | FIGURE 1.1 | image | textbook_images/speed_23098.png |
L_1038 | static electricity and static discharge | T_4897 | FIGURE 1.1 | image | textbook_images/static_electricity_and_static_discharge_23101.png |
L_1040 | surface wave | T_4901 | FIGURE 1.1 | image | textbook_images/surface_wave_23103.png |
L_1041 | synthesis reactions | T_4904 | FIGURE 1.1 | image | textbook_images/synthesis_reactions_23105.png |
L_1045 | technology and society | T_4914 | FIGURE 1.1 This is a museum model similar to the steam engine invented by James Watt. | image | textbook_images/technology_and_society_23110.png |
L_1048 | thermal conductors and insulators | T_4920 | FIGURE 1.1 | image | textbook_images/thermal_conductors_and_insulators_23114.png |
L_1048 | thermal conductors and insulators | T_4921 | FIGURE 1.2 | image | textbook_images/thermal_conductors_and_insulators_23115.png |
L_1048 | thermal conductors and insulators | T_4921 | FIGURE 1.3 | image | textbook_images/thermal_conductors_and_insulators_23116.png |
L_1049 | thermal energy | T_4923 | FIGURE 1.1 | image | textbook_images/thermal_energy_23117.png |
L_1050 | thermal radiation | T_4925 | FIGURE 1.1 | image | textbook_images/thermal_radiation_23118.png |
L_1051 | thomsons atomic model | T_4927 | FIGURE 1.1 | image | textbook_images/thomsons_atomic_model_23120.png |
L_1051 | thomsons atomic model | T_4927 | FIGURE 1.2 | image | textbook_images/thomsons_atomic_model_23121.png |
L_1051 | thomsons atomic model | T_4928 | FIGURE 1.3 | image | textbook_images/thomsons_atomic_model_23122.png |
L_1052 | transfer of electric charge | T_4929 | FIGURE 1.1 | image | textbook_images/transfer_of_electric_charge_23124.png |
L_1052 | transfer of electric charge | T_4932 | FIGURE 1.2 | image | textbook_images/transfer_of_electric_charge_23125.png |
L_1052 | transfer of electric charge | T_4933 | FIGURE 1.3 A: Electrons are transferred from the wall to the balloon, making the balloon negatively charged and the wall positively charged. The balloon sticks to the wall because opposite charges attract. | image | textbook_images/transfer_of_electric_charge_23126.png |
L_1053 | transition metals | T_4935 | FIGURE 1.1 | image | textbook_images/transition_metals_23127.png |
L_1053 | transition metals | T_4935 | FIGURE 1.2 Other properties of the transition metals are unique. They are the only elements that may use electrons in the next to highestas well as the highestenergy level as valence electrons. Valence electrons are the electrons that form bonds with other elements in compounds and that generally determine the properties of elements. Transition metals are unusual in having very similar properties even with different numbers of valence electrons. The transition metals also include the only elements that produce a magnetic field. Three of them have this property: iron (Fe), cobalt (Co), and nickel (Ni). | image | textbook_images/transition_metals_23128.png |
L_1054 | transverse wave | T_4937 | FIGURE 1.1 | image | textbook_images/transverse_wave_23129.png |
Subsets and Splits