课程目录
- 1·P1 01_welcome-to-rocket-science-101
- 2·P2 01_what-is-position-velocity-and-acceleration
- 3·P3 02_what-is-a-vector
- 4·P4 03_ballistic-motion
- 5·P5 01_newtons-3-laws
- 6·P6 02_what-is-momentum-and-why-does-it-matter
- 7·P7 03_aside-everything-is-relative
- 8·P8 01_the-basics-of-thrust
- 9·P9 02_introduction-to-the-rocket-equation
- 10·P10 03_why-do-rockets-have-stages
- 11·P11 01_optional-bonus-one-more-thing-for-this-week-the-v2-the-first-modern-balli
- 12·P12 01_the-fundamental-concepts-of-an-orbit
- 13·P13 02_keplers-laws
- 14·P14 01_our-place-in-the-solar-system-where-do-we-live-part-1
- 15·P15 02_our-place-in-the-solar-system-where-do-we-live-part-2
- 16·P16 01_what-is-escape-velocity
- 17·P17 02_escaping-vs-landing
- 18·P18 01_a-lot-of-types-of-orbits-are-out-there
- 19·P19 02_optional-bonus-orbit-demonstration
- 20·P20 03_hohmann-transfers-to-circle-the-sun
- 21·P21 04_why-don-t-we-throw-our-garbage-into-the-sun
- 22·P22 01_lagrange-points-what-are-they
- 23·P23 02_getting-to-mars
- 24·P24 01_optional-bonus-one-more-thing-for-this-week-sun-synchronous-orbits
- 25·P25 01_mass-flow-rate-vs-exhaust-velocity
- 26·P26 02_chemistry-and-physics-of-exhaust-velocity
- 27·P27 03_sizing-a-rocket
- 28·P28 01_basics-of-jet-engines
- 29·P29 02_vehicles-that-use-jet-engines
- 30·P30 03_where-is-the-edge-of-space
- 31·P31 01_basics-of-solid-engines
- 32·P32 02_solid-engine-grain-patterns
- 33·P33 03_more-on-boosters
- 34·P34 01_basics-of-liquid-engines
- 35·P35 02_cooling-the-bell-pumps
- 36·P36 03_nozzle-designs
- 37·P37 01_optional-bonus-one-more-thing-for-this-week-choosing-the-right-engine
- 38·P38 01_introduction-to-plasmas
- 39·P39 02_plasma-thrusters
- 40·P40 01_can-we-use-a-big-gun-to-get-to-space
- 41·P41 02_the-math-of-a-big-gun
- 42·P42 03_can-we-use-a-laser-to-get-to-space
- 43·P43 01_a-primer-to-nuclear-engines
- 44·P44 02_radioisotope-thermoelectric-generators
- 45·P45 03_hybrid-engines
- 46·P46 04_other-engine-designs
- 47·P47 01_going-to-mars-one-of-the-perspectives
- 48·P48 02_going-to-mars-what-could-we-do-better
- 49·P49 03_optional-bonus-going-to-mars-working-through-the-math
- 50·P50 02_one-more-thing-for-this-week-a-look-back-on-basics-of-rocket-science
- 51·P51 01_welcome-to-the-history-of-rocket-science-course
- 52·P52 01_the-history-of-pre-modern-rockets
- 53·P53 01_the-invention-of-the-v2-rocket
- 54·P54 01_rockets-post-wwii
- 55·P55 02_early-space-exploration-to-1961-part-1
- 56·P56 03_early-space-exploration-to-1961-part-2
- 57·P57 01_ramping-up-the-space-race-the-mercury-era
- 58·P58 01_the-gemini-era-us-and-ussr-achievements
- 59·P59 01_the-apollo-era-successes-failures-part-1
- 60·P60 02_the-apollo-era-successes-failures-part-2
- 61·P61 04_us-moon-missions-a-tribute-to-katherine-johnson
- 62·P62 01_one-more-thing-for-this-week-if-kennedy-had-lived
- 63·P63 01_the-development-of-fast-airplanes-in-the-us
- 64·P64 01_the-development-of-space-stations
- 65·P65 01_the-truck-to-space-the-development-of-the-space-shuttle
- 66·P66 01_one-more-thing-for-this-week-the-ussr-s-space-shuttle
- 67·P67 01_small-satellites-start-and-exploring-missions
- 68·P68 01_reducing-launch-cost-electron-other-launch-vehicles
- 69·P69 01_bigger-and-bolder-the-push-outwards
- 70·P70 01_one-more-thing-for-this-week-hotels-in-space
- 71·P71 03_course-wrap-up
- 72·P72 01_welcome-to-the-rocket-science-in-everyday-life-course
- 73·P73 01_space-agencies-around-the-world
- 74·P74 02_nasa-structure
- 75·P75 01_earth-science-satellites
- 76·P76 02_heliophysics
- 77·P77 01_missions-to-mercury
- 78·P78 02_is-there-anybody-out-there
- 79·P79 03_missions-to-venus
- 80·P80 05_missions-to-mars-part-1
- 81·P81 06_missions-to-mars-part-2
- 82·P82 01_the-voyagers-and-the-deep-space-network
- 83·P83 02_missions-to-the-outer-planets-jupiter
- 84·P84 03_missions-to-the-outer-planets-saturn-pluto
- 85·P85 05_seeing-beyond-our-solar-system
- 86·P86 01_one-more-thing-for-this-week-why-pluto-is-not-a-planet
- 87·P87 01_jet-packs-how-they-work
- 88·P88 02_how-much-fuel-does-iron-man-need
- 89·P89 01_how-teleportation-works
- 90·P90 01_the-millennium-falcon-problem
- 91·P91 02_gravity-in-space
- 92·P92 01_faster-than-light-travel-relativity
- 93·P93 02_time-dilation-travelling-faster-than-speed-of-light
- 94·P94 03_is-it-possible-to-travel-faster-than-light
- 95·P95 05_interstellar-travel-is-it-possible
- 96·P96 07_light-sabers-and-blasters
- 97·P97 01_bonus-optional-one-more-thing-for-this-week-best-and-worst-sci-fi-space-b
- 98·P98 01_introduction-to-week-4-raining-destruction-from-above
- 99·P99 02_comets-asteroids-and-meteors
- 100·P100 01_identifying-near-earth-objects-neos
- 101·P101 02_predicting-the-orbits-of-neos
- 102·P102 04_sizes-and-destructive-power-of-neos
- 103·P103 01_mitigation-strategies-in-preventing-neos
- 104·P104 02_example-of-mitigation-strategies-in-preventing-neos
- 105·P105 04_nasa-s-dart-mission
- 106·P106 01_optional-bonus-one-more-thing-for-this-week-the-best-and-worst-asteroid
- 107·P107 03_course-wrap-up
课程介绍
内容简介：
密歇根大学推出的【火箭科学基础|Rocket Science 101 Specialization】是一门全面介绍火箭科学原理与应用的课程，适合对航天工程、物理学和工程学感兴趣的学员。课程内容涵盖从基本物理概念到现代火箭设计的多个层面，帮助学习者构建扎实的理论基础。
课程概述：本课程以系统化的教学方式，带领学习者逐步了解火箭科学的核心概念，包括运动学、动力学、轨道力学以及火箭发动机的工作原理等。课程还涉及历史发展、航天器设计、任务规划等内容，为学员提供全方位的知识体系。
学习目标：通过本课程，学习者将掌握理解火箭运行的基本原理，熟悉火箭设计的关键要素，如推力、动量、逃逸速度等，并能够分析不同类型的轨道和发射策略。此外，课程还将引导学员探索未来航天技术的发展方向。
适用人群：本课程适合航空航天工程、物理、工程学等相关专业的学生，也适合对太空探索感兴趣的一般爱好者。无论是否有相关背景，都可以通过本课程获得深入的理解。
课程大纲：课程分为多个模块，包括基础物理概念、火箭推进原理、轨道力学、火箭发动机类型、航天历史、现代航天任务等。每个模块都包含视频讲解、案例分析和练习题，帮助学习者巩固知识。
课程亮点：课程不仅注重理论知识的传授，还结合实际案例，例如火星探测、空间站建设、小卫星任务等，让学习者更好地理解火箭科学在现实中的应用。同时，课程中还包含了关于科幻与真实航天技术的对比，增强趣味性。
结业成果：完成课程后，学员将获得密歇根大学颁发的证书，证明其掌握了火箭科学的基础知识和技能。此外，课程还提供了丰富的拓展资源，方便学员进一步深入学习。
