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| AQA | Science | A (4461) B (4462) |
How Science Works 10.1 The thinking behind the doing 10.2 Fundamental ideas 10.3 Observation as a stimulus to investigation 10.8 Societal aspects of scientific evidence 10.9 Limitations of scientific evidence Physics 1 13.7 What do we know about the origins of the universe and how it continues to change? |
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| AQA | Additional Science | 4463 | How Science Works 10.1The thinking behind the doing 10.2 Fundamental ideas 10.3 Observation as a stimulus to investigation 10.8 Societal aspects of scientific evidence 10.9 Limitations of scientific evidence Physics 2 13.3 What happens to the movement energy when things speed up or slow down? 13.4 What is momentum? |
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| AQA | Physics | 4451 | How Science Works 10.1 The thinking behind the doing 10.2 Fundamental ideas 10.3 Observation as a stimulus to investigation 10.8 Societal aspects of scientific evidence 10.9 Limitations of scientific evidence Physics 1 11.5 What are the uses and hazards of the waves that form the electromagnetic spectrum? 11.7 What do we know about the origins of the Universe and how it continues to change? Physics 2 12.3 What happens to the movement energy when things speed up or slow down? 12.4 What is momentum? Physics 3 13.2 What keeps bodies moving in a circle? 13.10 What is the life history of stars? |
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| OCR | Twenty First Century Science | Science A (J630) |
How Science Works
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| OCR | Twenty First Century Science | Additional Science A(J361) | How Science Works Module P4: Explaining Motion
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| OCR | Gateway Science | J640 | How Science Works Module P2: Living for the Future P2h The Big Bang |
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| OCR | Gateway Additional Science | J641 | How Science Works Module P4: Radiation for life P4e Treatment |
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| OCR | Physics | 1982 |
How Science Works
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| edexcel | Science | 360Science2101 | How Science Works P1b Topic 12: Space and its Mysteries Do physicists really have no idea what most of the universe is made from? The formation and evolution of the universe and its stars. |
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| Additional Science | 360Additional Science2103 | How Science Works P2 Topic 10: Roller Coasters and Relativity Can spaceships fly across galaxies at warp speed (faster than light)? How did Einstein come up with the most famous idea in physics - the theory of relativity? P2 Topic 11: Putting Radiation to Use Radioactivity has useful applications in everyday life and medicine. |
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| Physics | 360Physics2109 | How Science Works P3 Topic 5: Particles in Action Particles range in size from quarks in nucleons to molecules in gases and other forms of matter. An understanding of the behaviour of these particles can help scientists explain phenomena ranging from the sub-nuclear scale to the macroscopic scale. This topic may be used to show that scientific ideas, such as particle models, change over time and that today there are some questions that scientists cannot answer at the moment such as - 'is a quark made from smaller particles?' Is there anything smaller than protons, neutrons and electrons? Is anti-matter real, or just science fiction?Why do some scientists spend their lives on an experiment consisting of 27km of empty space? P3 Topic 6: Medical Physics This unit enables students to study how applications of physics in medical science can be used for non-invasive investigations of medical conditions, including the use of positron emission tomography (PET). The use of radiation treatments by hospital physicists to destroy some types of malignant growths is also studied. How can you 'see' things inside the human body? The bombardment of certain stable elements with proton radiation to make them into radioactive isotopes that usually emit positrons. What happens when a positron meets with an electron (they annihilate each other with the production of gamma rays). Examples of the use of positron emission tomography (PET) scanning. |
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