包含什麼
4 現場會議
3 小時 20 分鐘 上課時間評估
Learner progress will be assessed through in-class discussion and a fun, end-of-class quiz.我們無法翻譯此文,請刷新頁面並再試一次。
課堂經歷
英語程度 - 未知
美國 3 - 6 年級
This 4-session Quantum Frontiers Camp (meeting Monday-Thursday) introduces learners to intriguing concepts in quantum physics that represent some of the most cutting-edge areas of current scientific research! In addition, this course moves beyond the 3 most commonly-known subatomic particles (protons, neutrons and electrons) to discuss the 16 subatomic particles in the Standard Model, which is the theoretical framework used by modern physicists. The course includes a wide variety of sensory activities, including lecture presentation, in-class drawing activity, question-and-answer, short instructional videos, student discussion and visual aids. We'll be varying activity types often to keep students engaged. Please note: This camp includes the same content as our 4-week Quantum Frontiers course, condensed into 1 week. The Quantum Frontiers Camp explores the following topics: Session 1: What is Dark Matter? Dark Matter is a substance thought to account for roughly 85% of the matter in the universe. We'll explore the astrophysical observations that led scientists to propose the existence of Dark Matter. Dark matter is called "dark" because it does not appear to interact with the electromagnetic field - it does not absorb or reflect light, and does not appear to interact with known matter except through gravity. This session will delve into current research efforts to detect and understand this mysterious Dark Matter, like the Xenon Collaboration in Italy. Session 2: What is Dark Energy? Dark Energy is a speculative form of energy that may effect the universe on the largest scales. The first observational evidence for its existence came from supernovae measurements, which showed that the universe does not expand at a constant rate; rather, the expansion of the universe is actually accelerating. Since the 1990s, dark energy has been the most accepted premise to account for the accelerated expansion. We'll explore research projects aimed at discovering and understanding the nature of dark energy. Session 3: The Standard Model of Subatomic Particle - Beyond Protons, Neutrons & Electrons! Session 3 explores additional subatomic particles beyond the electron, neutron and proton, including quarks, bosons and neutrinos, introducing students to the Standard Model of Elementary Particles. We'll discuss how protons are neutrons are made of smaller particles (quarks), and the various types of quarks. We'll also explore emerging theories about additional subatomic particles that may be waiting to be discovered. Session 4: What is Anti-matter? Is Anti-matter real, or the stuff of science fiction? Anti-matter is actually REAL, and is composed of subatomic particles that have the opposite electrical charge of regular subatomic particles. Each type of subatomic particle has an anti-equivalent, such as anti-electrons (called positrons) and anti-protons. First proposed in 1928 by Paul Dirac, anti-particles are being produced and studied at the large Hadron Collider operated by CERN. Anti-matter is also naturally produced by radioactive decay of some elements, and they are used in medical PET (Positron Emission Tomography) scans to help diagnose a wide range of health conditions. Note: This course is also offered in a 4-week format (meeting once weekly), at this link: https://outschool.com/classes/quantum-frontiers-dark-matter-dark-energy-antimatter-and-the-standard-model-of-particle-physics-6XA2l5Tl#us9fIT1FTd
學習目標
In Session 1, students will learn about:
- Observational evidence of Dark Matter
- Current scientific theories about Dark Matter
- Research experiments attempting to detect Dark Matter
In Session 2, students will learn about:
- Observational evidence of Dark Energy
- Current scientific theories about Dark Energy
In Session 3, students will learn about:
- Additional subatomic elementary particles beyond the proton, neutron and electron, including quarks, bosons and neutrinos
- The Standard Model of Elementary Particles, the theoretical framework used by modern quantum physicists
In Session 4, students will learn about:
- Theories of anti-matter and anti-particles
- Current research and production of anti-matter at large particle accelerators
- Possible uses of anti-matter, such as warp speed space travel
教學大綱
4 課程
超過 1 週課 1:
Dark Matter
Dark Matter is a substance thought to account for roughly 85% of the matter in the universe. We'll explore the astrophysical observations that led scientists to propose the existence of Dark Matter. Dark matter is called "dark" because it does not appear to interact with the electromagnetic field - it does not absorb or reflect light, and does not appear to interact with known matter except through gravity.
50 分鐘線上直播課
課 2:
Dark Energy
Dark Energy is a speculative form of energy that may effect the universe on the largest scales. The first observational evidence for its existence came from supernovae measurements, which showed that the universe does not expand at a constant rate; rather, the expansion of the universe is actually accelerating. Since the 1990s, dark energy has been the most accepted premise to account for the accelerated expansion.
50 分鐘線上直播課
課 3:
The Standard Model of Particle Physics
Session 3 explores additional subatomic particles beyond the electron, neutron and proton, including quarks, bosons and neutrinos, introducing students to the Standard Model of Elementary Particles. We'll discuss how protons are neutrons are made of smaller particles (quarks), and the various types of quarks. We'll also explore emerging theories about additional subatomic particles that may be waiting to be discovered.
50 分鐘線上直播課
課 4:
What is Antimatter?
Is Anti-matter real, or the stuff of science fiction? Anti-matter is actually REAL, and is composed of subatomic particles that have the opposite electrical charge of regular subatomic particles. Each type of subatomic particle has an anti-equivalent, such as anti-electrons (called positrons) and anti-protons. First proposed in 1928 by Paul Dirac, anti-particles are being produced and studied at the large Hadron Collider operated by CERN.
50 分鐘線上直播課
其他詳情
外部資源
學習者無需使用標準 Outschool 工具以外的任何應用程式或網站。
教師專業知識和證書
We're dedicated to introducing young students to the amazing world of quantum physics, technological innovation and design! We've been offering STEAM (Science, Technology, Engineering, Art & Math) classes and creating educational materials for students of all ages for over 15 years. We're excited to share this course content with more students through Outschool.
評論
現場團體課程
US$72
用於 4 課程每週4次,共 1 週
50 分鐘
有74 位學習者完成此課程
即時視訊會議
年齡: 8-12
4-10 每班學員人數