Schwinger effect

E130661

The Schwinger effect is a quantum field theory phenomenon in which extremely strong electric fields can spontaneously create particle–antiparticle pairs from the vacuum.

All labels observed (2)

Label Occurrences
Schwinger effect canonical 4
Schwinger critical field 1

How this entity was disambiguated

Statements (49)

Predicate Object
instanceOf nonperturbative effect ⓘ
quantum field theory phenomenon ⓘ
vacuum instability ⓘ
analogSystem Dirac and Weyl semimetals ⓘ
cold atom systems ⓘ
graphene ⓘ
cause spontaneous creation of particle–antiparticle pairs from the vacuum ⓘ
consequence breakdown of the naive notion of empty vacuum in strong fields ⓘ
screening of external electric fields by produced pairs ⓘ
describedAs vacuum decay in an external electric field ⓘ
electricFieldThreshold Schwinger critical field ⓘ
linked to: Schwinger effect
experimentalStatus indirectly probed in condensed matter analogs ⓘ
not yet directly observed in QED vacuum ⓘ
field quantum electrodynamics ⓘ
quantum field theory ⓘ
generalization can occur for other charged particles ⓘ
can occur in curved spacetime backgrounds ⓘ
can occur in non-Abelian gauge theories ⓘ
hasTheoreticalFramework Bogoliubov transformation ⓘ
proper-time formalism ⓘ
worldline instanton method ⓘ
investigatedWith X-ray free-electron lasers ⓘ
ultra-intense laser fields ⓘ
involves electron–positron pairs ⓘ
particle–antiparticle pair creation ⓘ
vacuum pair production ⓘ
mathematicalDescription imaginary part of the effective action ⓘ
instanton solutions in Euclidean spacetime ⓘ
namedAfter Julian Schwinger ⓘ
pairProductionRateDependence exponential in inverse electric field strength ⓘ
pairProductionRateFormulaFeature contains factor exp(-π m^2 c^3 / (e ħ E)) ⓘ
predictedBy Julian Schwinger ⓘ
predictionYear 1951 ⓘ
publishedIn Physical Review ⓘ
relatedTo Casimir effect ⓘ
Hawking radiation ⓘ
Unruh effect ⓘ
nonperturbative pair production ⓘ
tunneling ⓘ
vacuum polarization ⓘ
relevance early universe cosmology ⓘ
heavy-ion collisions ⓘ
neutron star and magnetar environments ⓘ
strong-field QED ⓘ
requires extremely strong electric field strength ⓘ
SchwingerCriticalFieldInQED m_e^2 c^3 / (e ħ) ⓘ
SchwingerCriticalFieldValue approximately 1.3×10^18 V/m ⓘ
suppression exponentially suppressed below critical field ⓘ
triggeredBy strong electric fields ⓘ

How these facts were elicited

Referenced by (5)

Full triples — surface form annotated when it differs from this entity's canonical label.

Julian Schwinger → notableFor → Schwinger effect ⓘ
Julian Schwinger → notableConcept → Schwinger effect ⓘ
Schwinger effect → electricFieldThreshold → Schwinger critical field ⓘ
linked to: Schwinger effect
Klein paradox → relatedTo → Schwinger effect ⓘ
worldline instanton method → relatedTo → Schwinger effect ⓘ