INTRODUCTION TO QUANTUM COMPUTING
INTRODUCTION TO QUANTUM COMPUTING
A.Y. | Credits |
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2021/2022 | 4 |
Lecturer | Office hours for students | |
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Catia Grimani | By appointment fixed by email |
Teaching in foreign languages |
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Course entirely taught in a foreign language
English
This course is entirely taught in a foreign language and the final exam can be taken in the foreign language. |
Assigned to the Degree Course
Date | Time | Classroom / Location |
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Date | Time | Classroom / Location |
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Learning Objectives
This course aims at providing a basic knowledge of the scientific discoveries and theories formulated between the end of 1800 and beginnig 1900 that lead to the formulation of Quantum Mechanics and Quantum Computing.
Program
01. SCIENTIFIC DISCOVERIES BETWEEN THE END OF 800 AND BEGINNING '900
01.01 Radioactivity discovery
01.02 Electron discovery
01.03 Blackbody and the Planck's hypothesis
01.04 Double slit experiment
01.05 Electron diffraction and interference
01.06 Photoelectric effect
01.07 Compton effect
01.08 Properties of X rays
01.09 Atomic models
01.10 Particle-wave duality
02. MATHEMATICAL FRAMEWORK OF QUANTUM MECHANICS
02.01 Complex numbers
02.02 Wave function
02.03 Time-dependent Schroedinger equation
02.04 Time-independent Schroedinger equation
02.05 Matrices
02.06 Vector bases
02.07 Linear operators
02.08 Inner product
02.09 Outer product
02.10 Principles of Quantum Mechanics
02.11 Classical computing
02.12 Classical logic gates
03. QUANTUM COMPUTING
03.01 Superposition principle
03.02 Quantum registers
03.03 Measurement of the first qubit of a two qubit register
03.04 Entanglement
03.05 Photon polarization
03.06 The EPR paradox and the Bell's inequality
03.07 Quantum logic gates: X,Y,Z
03.08 Hadamard gate
03.09 CNOT logic circuit
03.10 No cloning theorem
03.11Bell's states
03.12 Quantum teleportation
Learning Achievements (Dublin Descriptors)
Knowledge and understanding
At the end of this course, each student will know to understand and solve problems with quantum gates
Applying knowledge and understanding
At the end of the course the students will be able to apply the laws of Modern Physics to simple problems of Quantum Mechanics
Making judgements:
The students will be able to apply their knowledge to problems not discussed during the teaching hours.
Communication skills:
Each student is more than recommended to ask questions during this course and to participate to discussions in order to improve his/her ability to present his/her work
At the end of the course the students will be able to present and discuss problems of Modern Physics with proper language and mathematical formalism required by the discipline.
Teaching Material
The teaching material prepared by the lecturer in addition to recommended textbooks (such as for instance slides, lecture notes, exercises, bibliography) and communications from the lecturer specific to the course can be found inside the Moodle platform › blended.uniurb.it
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