Introduction to Quantum Mechanics Quantum Mechanics: A framework of physics Quantum Physics: Application of QM on physics, E.g. String Theory (QM + gravity) Topics: 1. Linearity of QM 2. Complex Number 3. Loss of Determinism 4. Superposition 5. Entanglement Prep: A theory Theory of Motion = Equations of Motion (EOM) + Dynamical Variables I. Linearity πΏπ’ = 0 πΏ(π’, π£, π … ) = 0 L is the linearity Operator, u is the unknown πΏ(ππ’) = ππΏ(π’) πΏ(π’) + πΏ(π€) = πΏ(π’ + π€) πΏ(ππ’ + ππ€) = ππΏ(π’) + ππΏ(π€) If πΏ(π’) = πΏ(π€) = 0 , π΄π’ + ππ€ is a solution For a linear function, e.g. Maxwell Equations: 1. F(x) is a solution, F(ax) is a solution 2. F(x1) and F(x2) are solutions, F (x1 + x2) is a solution. 3. All solutions are superpositional. E.G. ππ’ 1 + π’ ππ‘ π Is a linear equation L(u) =