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Lund University - Fundamentals of particle accelerator technology (NPAP MOOC) 

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Fundamentals of particle accelerator technology (NPAP MOOC)
 at 
Coursera 
Overview

Duration

26 hours

Total fee

Free

Mode of learning

Online

Difficulty level

Intermediate

Official Website

Explore Free Course External Link Icon

Credential

Certificate

Fundamentals of particle accelerator technology (NPAP MOOC)
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Fundamentals of particle accelerator technology (NPAP MOOC)
 at 
Coursera 
Highlights

  • Shareable Certificate Earn a Certificate upon completion
  • 100% online Start instantly and learn at your own schedule.
  • Flexible deadlines Reset deadlines in accordance to your schedule.
  • Intermediate Level Basic physics at undergraduate level
  • Approx. 26 hours to complete
  • English Subtitles: English
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Fundamentals of particle accelerator technology (NPAP MOOC)
 at 
Coursera 
Course details

More about this course
  • 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!
  • There are also a growing number of synchrotron light sources in the world. The light in these sources are created by electrons that are accelerated to almost the speed of light. This light can reveal the molecular structures of materials and also take x-ray pictures of the inner structure of objects. Synchrotron light sources are very important in life sciences, material sciences and chemistry. Another type of accelerators are used in spallation sources, like the European Spallation Source in Lund, Sweden. Here protons are accelerated to very large energies. They produce neutrons when they are smashed into a disc of tungsten. These neutrons are used for finding the inner structure of objects and atomic structures of materials. Finally there are many accelerators for basic physics, like the large hadron collider in Cern.
  • This course takes you on a journey through the technologies used in particle accelerators: The microwave system which produce the electromagnetic waves that accelerate particles; The magnet technology for the magnets that guide and focus the beam of particles; The monitoring systems that determine the quality of the beam of particles; Finally the vacuum systems that create ultra high vacuum so that the accelerated particles do not collide with molecules and atoms. Exciting right!
  • The course is graded through quizzes, one for each of the four modules. Throughout the course there are also a number of training quizzes to offer you support. The four modules in the course are: RF-systems, Magnet technology, Beam diagnostics, and Vacuum techniques. In total there are 48 lectures, where each lecture is a 2-4 minutes long video presentation. Some of the lectures are followed by short texts with complementary information and all will hopefully be an exciting collection for you to engage with.
  • Have fun!
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Fundamentals of particle accelerator technology (NPAP MOOC)
 at 
Coursera 
Curriculum

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!

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Fundamentals of particle accelerator technology (NPAP MOOC)
 at 
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