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S-Matrix
CERN-ARCH-WP CERN-ARCH-PMC-CERN-ARCH-PMC-05-* CERN-ARCH-PMC-05-014 * 96172 · Item
Part of Pauli Manuscript Collection

S-Matrix, applications to Meson theoryNotes

Pauli, Wolfgang
S-Matrix
CERN-ARCH-WP CERN-ARCH-PMC-CERN-ARCH-PMC-05-* CERN-ARCH-PMC-05-022 * 730710 · Item
Part of Pauli Manuscript Collection

S-Matrix, applications to Meson theory

Pauli, Wolfgang
S-Matrix
CERN-ARCH-WP CERN-ARCH-PMC-CERN-ARCH-PMC-04-* CERN-ARCH-PMC-04-466 * 96166 · Item
Part of Pauli Manuscript Collection

Calculations on S-matrix.Calculations

Pauli, Wolfgang
Slides
CERN-ARCH-WP CERN-ARCH-PMC-CERN-ARCH-PMC-10-* CERN-ARCH-PMC-10-187 * 96466 · Item
Part of Pauli Manuscript Collection

Slides for the conference on Rydberg and the periodical system of elements.Slide on glass

[unknown]
Slides
CERN-ARCH-WP CERN-ARCH-PMC-CERN-ARCH-PMC-10-* CERN-ARCH-PMC-10-188 * 731843 · Item
Part of Pauli Manuscript Collection

Slides for the conference on Rydberg and the periodical system of elements.

[unknown]
Heritage collection CERN-OBJ-CERN-OBJ-AC-075 · Item
Part of Heritage Collection Test

Slice through an LHC superconducting quadrupole (focusing) magnet. The slice includes a cut through the magnet wiring (niobium titanium), the beampipe and the steel magnet yokes. Particle beams in the Large Hadron Collider (LHC) have the same energy as a high-speed train, squeezed ready for collision into a space narrower than a human hair. Huge forces are needed to control them. Dipole magnets (2 poles) are used to bend the paths of the protons around the 27 km ring. Quadrupole magnets (4 poles) focus the proton beams and squeeze them so that more particles collide when the beams’ paths cross. Bringing beams into collision requires a precision comparable to making two knitting needles collide, launched from either side of the Atlantic Ocean.