Skip to content

July 26-27

863-462-7030

info@ams02.org

Ams02

Conference on Advanced Elementary Particle Physics Detectors

  • Home
  • About
    • The main goal of the conference
  • Program
    • Day 1
    • Day 2
    • Day 3
  • Blog
  • Contact
  • Home
  • About
    • The main goal of the conference
  • Program
    • Day 1
    • Day 2
    • Day 3
  • Blog
  • Contact

July 26-27

863-462-7030

info@ams02.org

The Superconducting Magnet

  1. Home   »  
  2. The Superconducting Magnet
space-station

The Superconducting Magnet

March 29, 2024May 15, 2024 Moniz JohnBlog

At the heart of the original AMS-02 blueprint lies a revolutionary Cryogenic Superconducting Magnet, engineered to match the mechanical dimensions of its predecessor while boasting a magnetic field five times more potent.

Understanding Conducting Magnets

Harnessing the power of electricity coursing through wire coils, conducting magnets produce magnetic fields—a phenomenon governed by Ampere’s Law. Charged particles interacting with these fields experience Lorenz force, dictating their trajectory curvature based on energy and charge.
The Superconducting Magnet’s Vital Role

Elevating the magnetic field’s intensity, the Superconducting Magnet enables efficient particle separation even at high energies, thanks to superconducting wires carrying substantial currents without energy dissipation. This zero-resistance trait ensures prolonged magnet operation—a boon for space missions.

Why Cryogenics Matter

Operating at near absolute zero temperatures, superconductors necessitate cryogenic environments to maintain superconductivity. However, exceeding critical thresholds triggers a quench—a rapid shift from superconducting to resistive state—endangering the magnet. Sophisticated systems mitigate quenches by dissipating stored magnetic energy safely.

Constructing the Superconducting Magnet System

Comprising 14 superconducting coils nestled within a superfluid helium vessel, the magnet resides within a vacuum tank. These coils, fashioned from Niobium-Titanium filaments, generate the main magnetic field, while ancillary coils minimize stray fields, crucial for ISS compatibility. Operating at 1.8 K, sustained by 2,500 L of superfluid helium, the magnet’s cryogenic system ensures operational longevity, albeit finite due to helium consumption.

The Path Ahead

As the Superconducting Magnet unlocks new frontiers in space exploration, its enduring legacy promises to reshape our understanding of cosmic phenomena. With meticulous design and innovative engineering, this cryogenic marvel epitomizes humanity’s quest for knowledge amidst the stars.

Post navigation

Previous: The Permanent Magnet
Next: Magnets Comparison

Recent Posts

  • In Search of New Particles: What Experiments Are We Expecting in the Next Decade?
  • Supersymmetry and the Philosophy of Scientific Beauty: Why Do Physicists Seek Elegant Theories?
  • Conferencia sobre Detectores Avanzados de Física de Partículas Elementales
  • Empowering Future Scholars in Particle Physics Detection Research
  • Where Dissertation Research Meets Innovation in Particle Physics Detection
  • Conference on Advanced Detectors for Elemental Particle Physics: Innovations and Challenges
  • The Latest Findings from the Alpha Magnetic Spectrometer (AMS-02) on the International Space Station
  • The History of Physics Education: The Evolution of Teaching Methods and Curricula
  • Ethics and Academic Integrity in Physics: How to Avoid Plagiarism and Errors in Your Dissertation
  • Environmental and Safety Considerations in the Development of Advanced Particle Detectors

Program

  • Day 1
  • Day 2
  • Day 3

Main

  • Home
  • Contact
  • Privacy Policy

Program

  • Day 1
  • Day 2
  • Day 3

Quick links

  • About
  • The main goal of the conference

Blog

  • In Search of New Particles: What Experiments Are We Expecting in the Next Decade?
  • Supersymmetry and the Philosophy of Scientific Beauty: Why Do Physicists Seek Elegant Theories?
  • Conferencia sobre Detectores Avanzados de Física de Partículas Elementales
  • Empowering Future Scholars in Particle Physics Detection Research
Copyright 2024