Completion requirements
Course Overview:
Subject
content:
By understanding
probability theory, students can grasp the probabilistic nature of quantum
systems, interpret measurement outcomes, and comprehend the principles
underlying quantum mechanics and quantum computing. This foundational knowledge
is essential for further exploration and advancement in quantum information
science.
1- Probability basics reminder:
• Introduction to probability spaces,
events, and sample spaces.
• Independence of events.
• Discrete and continuous random
variables.
3- Probability Distributions:
• Bernoulli, binomial, and multinomial
distributions.
4- Probability distributions for combined random variables
• Joint and marginal distributions of
discrete random variables
5- Conditional probabilities and independence
30%: Written-test
Course Overview:
Probability theory forms the backbone of many techniques and algorithms in informatics. This course provides students with a solid foundation in probability theory and its applications in computer science. Through theoretical study and practical problems, students will develop the skills to model and analyze uncertain systems, make informed decisions in uncertainty, and apply probabilistic methods in various informatics domains.
Subject
content:
By understanding
probability theory, students can grasp the probabilistic nature of quantum
systems, interpret measurement outcomes, and comprehend the principles
underlying quantum mechanics and quantum computing. This foundational knowledge
is essential for further exploration and advancement in quantum information
science.
Module content:
1- Probability basics reminder:
• Introduction to probability spaces,
events, and sample spaces.
• Probability axioms and properties.
• Combinatory and counting techniques.
• Conditional probability and Bayes'
theorem.
• Independence of events.
2- Random Variables:
• Discrete and continuous random
variables.
• Probability mass functions and
probability density functions.
• Cumulative distribution functions.
• Expected value, variance, and
moments.
3- Probability Distributions:
• Bernoulli, binomial, and multinomial
distributions.
• Poisson distribution.
• Gaussian (normal) distribution.
• Exponential and gamma distributions.
4- Probability distributions for combined random variables
• Joint and marginal distributions of
discrete random variables
•
Joint and marginal distributions of continuous random variables
• Expectations of joint discrete and continuous
distributions
5- Conditional probabilities and independence
• Conditional distribution of a discrete
random variable and its properties
• Conditional distribution of a
discrete random variable and its properties
• Conditional expectation and
variance
Evaluation:
30%: Written-test
70%: Exam
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