NeutrinoCenter.org | Neutrino Air Shower

1. Fundamental Concepts

1. Neutrino-induced air showers

2. Extensive air showers

3. Atmospheric particle cascades

4. Hadronic shower development

5. Electromagnetic shower development

6. Muonic shower component

7. Shower longitudinal profile

8. Shower lateral distribution

9. Shower maximum, (X_{\max})

10. Atmospheric slant depth

11. Shower age parameter

12. Primary-particle energy reconstruction

13. Shower-axis reconstruction

14. Arrival-direction reconstruction

15. Neutrino interaction depth

16. Neutrino interaction probability in the atmosphere

17. Deeply penetrating air showers

18. Near-horizontal air showers

19. Inclined air showers

20. Upward-going air showers

2. Neutrino Interaction Physics

21. Charged-current neutrino interactions

22. Neutral-current neutrino interactions

23. Deep-inelastic neutrino–nucleon scattering

24. Neutrino–electron scattering

25. Glashow resonance air showers

26. Neutrino cross-sections at ultrahigh energies

27. Parton distribution functions at small Bjorken-(x)

28. Inelasticity distributions

29. Secondary-particle production

30. Lepton propagation after neutrino interaction

31. Flavor-dependent shower signatures

32. Electron-neutrino-induced showers

33. Muon-neutrino-induced showers

34. Tau-neutrino-induced showers

35. Neutrino versus antineutrino interactions

36. Beyond-Standard-Model neutrino interactions

3. Tau-Neutrino Air Showers

37. Earth-skimming tau neutrinos

38. Tau-lepton emergence from the Earth

39. Tau decay in the atmosphere

40. Tau decay length

41. Tau energy loss in rock

42. Tau regeneration inside the Earth

43. Mountain-skimming tau neutrinos

44. Valley-based tau-neutrino detection

45. Upward tau-induced air showers

46. Horizontal tau-induced air showers

47. Double-bang-like atmospheric signatures

48. Multi-bang tau-neutrino events

49. Tau emergence angle

50. Tau decay altitude

51. Earth opacity to ultrahigh-energy neutrinos

52. Crustal density effects

53. Mountain density and topographic effects

54. Ocean-skimming tau-neutrino events

55. Ice-skimming tau-neutrino events

4. Air-Shower Development

56. First interaction point

57. Cascade multiplication

58. Pion and kaon production

59. Neutral-pion decay into photons

60. Charged-pion decay into muons and neutrinos

61. Muon decay

62. Electron–positron pair production

63. Bremsstrahlung

64. Photonuclear interactions

65. Nuclear fragmentation

66. Landau–Pomeranchuk–Migdal effect

67. Geomagnetic preshower effect

68. Shower-to-shower fluctuations

69. Atmospheric attenuation

70. Shower footprint on the ground

71. Curvature of the shower front

72. Time structure of shower particles

73. Shower universality

74. Hadronic-interaction model uncertainties

5. Optical Detection of Neutrino Air Showers

75. Cherenkov radiation from air showers

76. Optical Cherenkov telescopes

77. Imaging atmospheric Cherenkov detection

78. Fluorescence emission from nitrogen

79. Air-fluorescence telescopes

80. Fluorescence yield calibration

81. Cherenkov light pool

82. Cherenkov angle

83. Optical shower images

84. Image-parameter reconstruction

85. Night-sky background

86. Atmospheric transparency monitoring

87. Cloud effects on optical detection

88. Aerosol attenuation

89. Moonlight effects

90. Optical detector duty cycle

91. Silicon photomultipliers

92. Photomultiplier-tube cameras

93. Fast optical triggering

6. Radio Detection

94. Radio emission from air showers

95. Geomagnetic radio emission

96. Askaryan charge-excess emission

97. Radio polarization

98. Radio-frequency spectrum

99. Coherent radio emission

100. Radio footprint reconstruction

101. Radio interferometry

102. Phased-array detection

103. Beamforming

104. Radio pulse timing

105. Radio-frequency background

106. Ionospheric effects on radio signals

107. Tropospheric refraction

108. Surface reflection of radio pulses

109. Ice reflection of air-shower radio emission

110. Mountain reflection of radio signals

111. Space-based radio detection

112. Balloon-borne radio detection

113. Ground-based radio arrays

114. Upward-going radio air-shower signatures

7. Surface and Particle Detection

115. Water-Cherenkov detector arrays

116. Scintillator detector arrays

117. Resistive-plate chambers

118. Muon detectors

119. Underground muon detectors

120. Surface detector stations

121. Particle-density measurement

122. Shower-front timing

123. Hybrid surface detection

124. Sparse detector arrays

125. Dense detector arrays

126. High-altitude air-shower arrays

127. Mountain-slope detector arrays

128. Valley-facing detector systems

129. Trigger architecture

130. Detector synchronization

131. GPS timing systems

132. Detector calibration

8. Acoustic and Alternative Detection Methods

133. Acoustic signatures of extensive air showers

134. Infrasound from energetic air showers

135. Microwave emission from air showers

136. Molecular bremsstrahlung radiation

137. Radar detection of ionization trails

138. Atmospheric plasma detection

139. Radar reflection from air showers

140. Satellite detection of transient atmospheric events

141. Multimessenger air-shower detection

142. Hybrid radio–optical detection

143. Hybrid particle–radio detection

144. Hybrid optical–particle detection

9. Atmospheric and Environmental Effects

145. Atmospheric density profiles

146. Temperature dependence of shower development

147. Pressure dependence

148. Humidity effects

149. Seasonal atmospheric variations

150. Atmospheric electric fields

151. Thunderstorm effects

152. Lightning-related backgrounds

153. Geomagnetic-field effects

154. Cloud cover

155. Aerosol concentration

156. Atmospheric refractive-index variations

157. Wind effects on detector operation

158. Snow accumulation

159. Ice coverage

160. Mountain weather conditions

161. Bioluminescence backgrounds for coastal systems

162. Anthropogenic radio-frequency interference

10. Background Events

163. Cosmic-ray-induced air showers

164. Proton-induced showers

165. Heavy-nucleus-induced showers

166. Gamma-ray-induced air showers

167. Atmospheric-muon backgrounds

168. Atmospheric-neutrino backgrounds

169. Prompt atmospheric neutrinos

170. Conventional atmospheric neutrinos

171. Lightning-generated radio pulses

172. Satellite and aircraft interference

173. Thermal-noise triggers

174. Anthropogenic optical flashes

175. Meteors and atmospheric transients

176. Transient luminous events

177. Background rejection methods

178. Neutrino–cosmic-ray discrimination

179. Upward-versus-downward event discrimination

11. Reconstruction and Data Analysis

180. Shower-energy reconstruction

181. Zenith-angle reconstruction

182. Azimuth-angle reconstruction

183. Interaction-point reconstruction

184. Tau decay-point reconstruction

185. Shower-profile fitting

186. Radio-wavefront reconstruction

187. Cherenkov-image reconstruction

188. Fluorescence-track reconstruction

189. Likelihood-based event reconstruction

190. Bayesian reconstruction

191. Machine-learning event classification

192. Deep-learning shower reconstruction

193. Neural-network triggering

194. Anomaly detection

195. Signal deconvolution

196. Noise filtering

197. Coincidence analysis

198. Effective-area calculation

199. Detector acceptance

200. Exposure estimation

201. Angular resolution

202. Energy resolution

203. Neutrino-flavor identification

204. Event-rate estimation

205. Statistical significance

206. Upper-limit calculations

207. Sensitivity and discovery potential

12. Simulation Topics

208. Monte Carlo air-shower simulations

209. Neutrino-interaction generators

210. Tau propagation simulations

211. Earth-propagation simulations

212. Atmospheric cascade simulations

213. Detector-response simulations

214. End-to-end experiment simulations

215. Topography-based simulations

216. Digital elevation models

217. Atmospheric-profile modeling

218. Radio-emission simulations

219. Cherenkov-light simulations

220. Fluorescence-light simulations

221. Hybrid detector simulations

222. Fast shower parametrization

223. Full microscopic simulations

224. GPU-accelerated simulations

225. Simulation validation

226. Systematic-uncertainty propagation

13. Common Simulation Software

227. CORSIKA

228. CORSIKA 8

229. AIRES

230. ZHAireS

231. CoREAS

232. SELFAS

233. CONEX

234. NuRadioMC

235. NuRadioReco

236. PROPOSAL

237. TAUOLA

238. HERWIG

239. PYTHIA

240. GENIE

241. Geant4

242. FLUKA

243. MCEq

244. CRPropa

245. ANIS

246. DANTON

247. RETRO

248. ROOT-based air-shower analysis

14. Energy Regimes

249. TeV neutrino air showers

250. PeV neutrino air showers

251. EeV neutrino air showers

252. ZeV neutrino air showers

253. Ultrahigh-energy neutrinos

254. Extremely high-energy neutrinos

255. Energy-dependent Earth absorption

256. Energy-dependent tau emergence

257. Energy threshold of detectors

258. High-energy extrapolation of cross-sections

15. Neutrino Sources Connected to Air-Shower Studies

259. Active galactic nuclei

260. Blazars

261. Gamma-ray bursts

262. Tidal disruption events

263. Supernovae

264. Hypernovae

265. Magnetars

266. Pulsar wind nebulae

267. Starburst galaxies

268. Galactic Center

269. Galactic plane

270. Binary neutron-star mergers

271. Black-hole mergers

272. Cosmogenic neutrinos

273. Greisen–Zatsepin–Kuzmin neutrinos

274. Astrophysical transient neutrinos

275. Diffuse astrophysical neutrino flux

276. Dark-matter decay neutrinos

277. Topological-defect neutrinos

16. Experiments and Observatory Concepts

278. Pierre Auger Observatory neutrino searches

279. Telescope Array neutrino searches

280. IceCube high-energy neutrino searches

281. IceCube-Gen2 radio and surface detection

282. ANITA

283. PUEO

284. EUSO-SPB2

285. POEMMA

286. Trinity

287. BEACON

288. GRAND

289. GRANDProto300

290. TAROGE

291. TAMBO

292. TAMBO-H

293. Ashra and Ashra-NTA

294. MAGIC Earth-skimming searches

295. H.E.S.S. tau-neutrino searches

296. CTAO neutrino follow-up observations

297. LHAASO air-shower studies

298. HAWC neutrino-related searches

299. AugerPrime

300. FAST fluorescence-telescope concept

301. CHANT space-based concept

302. NTA neutrino telescope array

303. Mountain-based neutrino observatories

304. Space-based extensive-air-shower observatories

17. Multimessenger Astronomy

305. Neutrino–gamma-ray coincidence searches

306. Neutrino–gravitational-wave coincidence searches

307. Neutrino–cosmic-ray correlations

308. Neutrino–radio transient correlations

309. Rapid transient alerts

310. Target-of-opportunity observations

311. Real-time event reconstruction

312. Follow-up of blazar flares

313. Follow-up of gamma-ray bursts

314. Follow-up of gravitational-wave events

315. Source-direction stacking analyses

316. Time-dependent source searches

317. Multimessenger source localization

18. Detector Design and Site Selection

318. Mountain geometry optimization

319. Valley width and depth

320. Mountain target mass

321. Detector elevation

322. Field of view

323. Horizon coverage

324. Source visibility

325. Tau emergence probability maps

326. Neutrino chord-length calculations

327. Local topography

328. Rock composition and density

329. Detector spacing

330. Array orientation

331. Communication infrastructure

332. Power systems

333. Remote detector operation

334. Environmental durability

335. Accessibility and maintenance

336. Atmospheric monitoring stations

337. Site-specific background surveys

338. Prototype and pathfinder detectors

19. Theoretical and New-Physics Topics

339. Ultrahigh-energy neutrino cross-sections

340. Non-standard neutrino interactions

341. Sterile-neutrino air-shower signatures

342. Neutrino decay

343. Lorentz-invariance violation

344. Superluminal-particle hypotheses

345. Heavy neutral leptons

346. Leptoquark-mediated interactions

347. Sphaleron-induced showers

348. Microscopic black-hole production

349. Extra-dimensional models

350. Dark-sector particle showers

351. Strongly interacting neutrino models

352. Exotic upward-going air showers

353. Anomalous ANITA events

354. Standard-Model explanations of anomalous showers

20. Research and Development Topics

355. Low-threshold neutrino air-shower detection

356. Large-area autonomous detector networks

357. Solar-powered detector stations

358. Artificial-intelligence-based triggering

359. Real-time radio-frequency interference rejection

360. Precision timing networks

361. Distributed sensor arrays

362. Drone-assisted detector calibration

363. Satellite–ground hybrid detection

364. Balloon–ground coincidence detection

365. Cross-calibration between observatories

366. Open air-shower data standards

367. Reproducible simulation frameworks

368. Global neutrino air-shower networks

369. Next-generation tau-neutrino observatories

370. Himalayan tau-neutrino air-shower detection

371. Coastal and island-based detection concepts

372. Bay of Bengal–Himalaya multimessenger geometry

373. Global mountain-valley site surveys

374. Sensitivity optimization for (1\text{–}100\ \mathrm{PeV}) tau neutrinos

375. Feasibility studies for regional neutrino air-shower observatories