Fundamentals of particle accelerator technology (NPAP MOOC)

  • 4.6
Approx. 26 hours to complete

Course Summary

Learn about the fundamentals of particle accelerator technology and its applications in various fields such as medicine, energy, and science. This course covers the principles behind the design and operation of particle accelerators, as well as the challenges and opportunities in the field.

Key Learning Points

  • Understand the principles of particle accelerator technology and its applications
  • Learn about different types of particle accelerators and their uses
  • Explore the challenges and opportunities in the field

Job Positions & Salaries of people who have taken this course might have

  • Accelerator Physicist
    • USA: $95,000
    • India: ₹6,50,000
    • Spain: €45,000
  • Beam Physicist
    • USA: $105,000
    • India: ₹8,00,000
    • Spain: €50,000
  • Accelerator Engineer
    • USA: $85,000
    • India: ₹5,50,000
    • Spain: €40,000

Related Topics for further study


Learning Outcomes

  • Understand the principles of particle accelerator technology
  • Learn about the different types of particle accelerators and their uses
  • Explore the challenges and opportunities in the field

Prerequisites or good to have knowledge before taking this course

  • Basic knowledge of physics and mathematics
  • Familiarity with scientific research methods

Course Difficulty Level

Intermediate

Course Format

  • Online
  • Self-paced
  • Video-based

Similar Courses

  • Introduction to High-Energy Physics
  • Quantum Mechanics and Quantum Computation

Related Education Paths


Notable People in This Field

  • Former Director of Research and Computing at CERN
  • Professor of Physics at the University of Padua

Related Books

Description

Did you know that particle accelerators play an important role in many functions of todays society and that there are over 30 000 accelerators in operation worldwide? A few examples are accelerators for radiotherapy which are the largest application of accelerators, altogether with more than 11000 accelerators worldwide. These accelerators range from very compact electron linear accelerators with a length of only about 1 m to large carbon ion synchrotrons with a circumference of more than 50 m and a huge rotating carbon ion gantry with a weight of 600 tons!

Knowledge

  • You will learn the basic technology of particle accelerators.
  • You will understand the basic principles for how particles are accelerated, and how they can be guided.
  • You will learn about different ways to monitor the beam.
  • You will learn about vacuum: Why we need vacuum in accelerators; Where particles that give rise to pressure comes from; How one create vacuum

Outline

  • RF-systems
  • General introduction
  • Outline of the RF-system
  • Pill-box cavities
  • Energy
  • Coaxial waveguides
  • Rectangular waveguides
  • Computer simulations
  • The circulator
  • Introduction to RF-amplifiers
  • The klystron
  • General properties
  • Drift tube linac (DTL)
  • Elliptical cavity
  • Traveling wave cavity
  • Introduction
  • Basic concepts 1
  • A mathematical description of the pillbox cavity
  • A mathematical description of energy in cavities
  • A mathematical description of the coaxial waveguide
  • A mathematical description of rectangular waveguides
  • More on the circulator
  • Gain of amplifiers
  • Drift tube Linac: example
  • Elliptical cavity: example
  • Quiz Introduction
  • Outline of RF-system
  • Pill-box cavities
  • Energy
  • Coaxial waveguides
  • Rectangular waveguides
  • Computer simulations
  • Circulator
  • Introduction to amplifiers
  • The klystron
  • General properties
  • Drift tube linac
  • Elliptical cavities
  • Traveling wave cavity
  • RF-systems: Graded test
  • Magnet technology for accelerators
  • Basic iron magnet concepts, magnet types and design
  • Fast ramp magnets
  • Superconducting magnets
  • Permanent accelerator magnets and insertion devices
  • Magnetic circuits
  • Basic concepts
  • Fast ramped magnets
  • Superconducting magnets
  • Permanent magnets and insertion devices
  • Magnet technology: Graded test
  • Beam Diagnostics
  • Motivation to beam diagnostics
  • Important concepts in beam diagnostics
  • Describing the beam
  • Faraday cup
  • Wall current monitor
  • Beam Current Transformer
  • Button pick-up
  • Cavity BPM
  • OTR and Scintillating screens
  • Wire scanner and SEM grid
  • Synchrotron radiation monitor
  • An introduction to longitudinal profile
  • Transversely deflecting cavity
  • Streak camera
  • Energy (profile) monitoring: Spectrometer and ToF
  • Energy along a single bunch
  • Introduction to beam loss and machine protection.
  • Ionization chamber
  • Scintillation counter
  • Introduction to lecture on current and position measurements
  • Introduction to lecture on transverse beam profile measurements
  • To measure the beam emittance and the Twiss parameters:
  • Motivation to beam diagnostics
  • Important concepts in beam diagnostics
  • Describing the beam
  • Faraday cup
  • Wall current monitor
  • Beam current transformer
  • Button pick up
  • Cavity BPM
  • OTR and scintillation screens
  • Wire scanner and SEM grid
  • Synchrotron radiation measurement
  • Emittance measurements
  • Transversely deflecting cavity
  • Streak camera
  • Energy monitoring: Spectrometer and ToF
  • Energy along a single bunch
  • Introduction to beam loss and machine protection
  • Ionization chamber
  • Scintillation counter
  • Beam diagnostics: Graded test
  • Basics of Vacuum techniques
  • Motivation
  • Introduction to pressure/vacuum
  • Three states of residual gas
  • Definition of vacuum regions
  • Composition of residual gas
  • Introduction to pumps
  • Gas-Displacement Pumps
  • Kinetic Vacuum Pumps
  • Gas-Binding Pumps
  • Vacuum Gauges
  • Vacuum components
  • Brief introduction to Maxwell-Boltzmann theory for ideal gas
  • Motivation
  • Introduction to pressure/vacuum
  • Three states of residual gases
  • Definition of vacuum regions
  • Composition of residual gases
  • Gas displacement pumps
  • Kinetic vacuum pumps
  • Gas binding pump
  • Vacuum Gauges
  • Vacuum components
  • Vacuum technology: Graded test
  • You have now successfully finalized the course!
  • Well done! You have now successfully finalized the course!

Summary of User Reviews

The Fundamentals of Particle Accelerator Technology course is highly rated by users. Many users found the course to be well-structured and informative. One key aspect that many users thought was good was the course content that was easy to comprehend and follow.

Pros from User Reviews

  • Well-structured course content
  • Informative lectures
  • Great explanations of complex concepts
  • In-depth coverage of the subject matter

Cons from User Reviews

  • Some users found the course to be too theoretical
  • Lack of practical examples
  • Difficult to follow for those without a physics or engineering background
English
Available now
Approx. 26 hours to complete
Anders Karlsson, Pauli Heikkinen, Franz Bødker, Maja Olvegård
Lund University
Coursera

Instructor

Anders Karlsson

  • 4.6 Raiting
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