Detector Array: [ACTIVE] Field Sensors: [ACTIVE] SQUID Loop: [STANDBY] Data Pipeline: [STREAMING] Uptime: 33,847 days Last Calibration: 2026-02-25T08:00:00Z
[1982-02-14] Cabrera Event: 8Φ0 flux change [1986-06-22] Candidate: rejected (noise) [2002-11-15] IceCube: upper limit set [2010-03-08] MoEDAL: no signal [2024-09-01] MoEDAL Run3: analysis pending [2026-02-25] Monitoring continues...
Flux Density (nT)
50 | #
40 | # #
30 | # # # #
20 | # # # # # #
10 | # # # # # # # #
0 +--+--+--+--+--+--+--+--
01 02 03 04 05 06 07 08
monopole.tech: Technical infrastructure for magnetic monopole detection and analysis. Operating since Dirac's 1931 prediction. A single monopole would explain charge quantization -- the most powerful constraint in physics from the simplest possible cause.
N Grand unified theories predict monopoles
/|\ as topological defects formed during the
/ | \ GUT phase transition at ~10^16 GeV.
/ | \
/ | \ 't Hooft-Polyakov monopoles arise as
---+----+----+--- solitonic solutions in non-Abelian gauge
\ | / theories with finite mass determined by
\ | / the symmetry-breaking energy scale.
\ | /
\|/ Emergent monopoles in spin ice crystals
S provide condensed-matter analogues of
Dirac's fundamental prediction.