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Ruapehu, New Zealand
Figure in a journal article
Hazard map (average) at a probability of 1% conditional to an eruption
Figure 9 in: Strehlow, K., Sandri, L., Gottsmann, J. H., Kilgour, G., Rust, A. C., & Tonini, R. (2017). Phreatic eruptions at crater lakes: occurrence statistics and probabilistic hazard forecast. Journal of Applied Volcanology, 6(1), 4. https://doi.org/10.1186/s13617-016-0053-2

Asamayama, Japan
Official, Map in a booklet, long fact-sheet, or handbook
Hazard map of small to medium-scale eruptions (snowless period)
Asamayama Volcanic Disaster Prevention Committee. (2019). Asamayama Volcanic Disaster Prevention Map. Tsumagoi Village.

Daisetsusan (Taisetsuzan), Japan
Official, Map sheet or poster
Higashikawa Town Flood Hazard (largest scale) and Daisetsu-san (Asahi-dake) Volcano Disaster Prevention Map
Higashikawa Town. (2020). Higashikawa Town Flood Hazard (largest scale) and Daisetsu-san (Asahi-dake) Volcano Disaster Prevention Map. Hokkaido Map Co., Ltd. Asahikawa Branch.

Daisetsusan (Taisetsuzan), Japan
Official, Map in a booklet, long fact-sheet, or handbook
Higashikawa Town Volcano Hazard Map
Higashikawa Town Hall. (2020). Higashikawa Town Disaster Prevention Hazard Map. Hokkaido Map Co., Ltd. 30 p.

Te Maari (Tongariro), New Zealand
Figure in a journal article
Impact crater distributions from possible future eruption scenarios modelled using the Tsunematsu et al. (2013) ballistic trajectory model
Figure 11 in: Fitzgerald, R. H., Tsunematsu, K., Kennedy, B. M., Breard, E. C. P., Lube, G., Wilson, T. M., Jolly, A.D., Pawson, J., Rosenburg, M.D., & Cronin, S. J. (2014). The application of a calibrated 3D ballistic trajectory model to ballistic hazard assessments at Upper Te Maari, Tongariro. Journal of volcanology and geothermal research, 286, p. 248-262. https://doi.org/10.1016/j.jvolgeores.2014.04.006

Iwakisan, Japan
Official, Flyer, brochure, short fact-sheet, or handout
Iwakiyama Volcanic Alert Levels
Japan Meteorological Agency. (2016). Iwakiyama Volcanic Alert Levels. Volcano Monitoring and Warning Center, Volcano Division, Earthquake and Volcano Department.

Iwatesan, Japan
Official, Flyer, brochure, short fact-sheet, or handout
Iwatesan Volcanic Alert Levels
Japan Meteorological Agency. (2019). Iwatesan Volcanic Alert Levels. Volcano Monitoring and Warning Center, Volcano Division, Earthquake and Volcano Department.

Kirishimayama Area (Ioyama; Ohachi; Shinmoedake), Japan
Official, Hiking or trail map
Kirishima Trekking Map
Kirishimashi. (2020). Kirishima Trekking Map. 2020.03

Kirishimayama Area (Ioyama; Ohachi; Shinmoedake), Japan
Official, Hiking or trail map
Kirishima Trekking Map
Kirishimashi. (2014). Kirishima Trekking Map. 2014.11

Kirishimayama Area (Ioyama; Ohachi; Shinmoedake), Japan
Official, Hiking or trail map
Kirishima Trekking Map
Kirishimashi. (2015). Kirishima Trekking Map.

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Access or danger zone
Acid rain
Ash-cloud surges
Ballistics
Caldera-formation hazards
Debris avalanches
Deformation hazards
Distal hazards
Earthquakes
Explosion hazards, unspecific
Fire
Floods or jokulhaups
Flowage hazards
Gas
Geothermal hazards
Lahars
Lateral or directed blasts
Lava dome-related hazards
Lava flows
Laze
Lightning
Littoral blasts
PDCs
Proximal hazards
Regional hazards
Rockfalls
Sedimentation or erosion
Shockwaves
Surges
Tephra fall
Tsunami
Unstated or all hazards
Vent-opening hazards
Vog
Water disturbances or marine hazards

AERMOD
ASH3D
ASHFALL
Ballista
Ballistics
BET_VH
CALPUFF
DAMBRK
DOWNFLOW
Eject!
Energy cone or line
ERN-Volcano
Etna Lava Flow Model
FALL3D
Flexpart
FLO-2D
FLOW
FLOW2D or FLOW3D
FLOWGO
G-EVER VHASS
Generic buffer model
Generic probability distribution model
Generic spatial density model
Generic/unknown KDE vent-opening model
Great Balls of Fire
HASSET
HAZMAP
HEC-RAS
HIMAT-FAO
HYDESim
HYDRAUX
Hysplit
Info layer weighting model
LaharFlow
LAHARZ
LavaC
LavaPL
LavaSIM
LAZSLO
Limit Equilibrium Analysis
Lines of Steepest Descent
LPAC
MAGFLOW
MatHaz
MOLASSES
MrLavaLoba
MULTIFLOW
MultiHaz lahar model
NAME
Peak Ground Acceleration model
Prandl-Meyer shockwave model
PUFF
PyF
PYROFLOW
PYROFLOW ash-cloud surge model
Q-LavHa
QVAST
SCIARA-fv2
SLAG
Tephra2
TephraProb
TITAN2D
Unknown flood model
Unknown flow model
Unknown gas dispersion model
Unknown lahar flow model
Unknown lava flow model
Unknown tephra model
Unnamed ballistic model [Alatorre-Ibargüengoitia & Delgado-Granados (2006)]
Unnamed ballistic model [Alatorre-Ibargüengoitia et al. (2012)]
Unnamed ballistic model [Instituto Geológico y Minero de España (2006)]
Unnamed ballistic model [Nurmawati & Konstantinou (2018)]
Unnamed Bayesian fault vent-opening model [Bevilacqua et al. (2017)]
Unnamed Bayesian KDE vent-opening model [Bevilacqua et al. (2017)]
Unnamed cellular automata lava flow model [Miyamoto & Sasaki (1997)]
Unnamed cellular automata PDC model [Kelfoun et al. 1995]
Unnamed cost-distance model [Barrantes Castillo & Malavassi Rojas (2015)]
Unnamed Cox process model [Diggle & Milne (1983)]
Unnamed ellipse tephra model [Blong (1981)]
Unnamed empirical altitude-length lava flow model
Unnamed empirical area-volume relationship
Unnamed empirical column height-thickness model [Carey & Sparks (1986)]
Unnamed empirical tephra fallout model
Unnamed empirical tephra model [Bertin et al. (2019)]
Unnamed energy cone model [Toyos et al. (2007)]
Unnamed GIS watershed/lavashed model [Kauahikaua et al. (1998)]
Unnamed KDE SAMSE vent-opening model [Connor et al. (2012)]
Unnamed KDE vent-opening model [Connor & Connor (2009)]
Unnamed lahar model [Kuniaki & Ido (2003)]
Unnamed lahar model [Miyamoto & Ito (2003)]
Unnamed lahar travel time model [Pierson (1998)]
Unnamed lava flow model [Cabildo Tenerife (2012)]
Unnamed lava flow model [CAPRA]
Unnamed lava flow model [Marrero et al. (2019)]
Unnamed lava flow model [Miyamoto & Sasaki (1998)]
Unnamed lava flow model [Yamashita (1990)]
Unnamed mass flow model [Mastrolorenzo & Pappalardo (2010)]
Unnamed mass flow model [Yamashita & Miyamoto (1991)]
Unnamed particle sedimentation model [Rossi et al. 2019]
Unnamed shockwave model [Córdoba & Del Risco (1998)]
Unnamed tephra model [Folch & Felpeto (2005)]
Unnamed tephra model [Hoblitt et al. (1987); Hoblitt & Scott (2011)]
Unnamed tephra model [JMA]
Unnamed tephra model [Mastrolorenzo & Pappalardo (2010)]
Unnamed tephra model [Pasquill (1974)]
Unnamed tephra model [Shaw et al. (1974)]
Unnamed tephra model [Suzuki (1985)]
Unnamed topographic lava flow model
Unnamed vent-opening model [Becerril et al. (2013)]
Unnamed weighted avg. vent-opening model [Bevilacqua et al. (2017)]
VAFTAD
Vent Opening Probability
VOL-CALPUFF
VolcFlow
VORIS

Arrival time
Ballistic impact density
Ballistic impact energy
Concentration/Density
Crater diameter
Exposure or susceptibility metric
Factor of Safety
Footprint of inundation
Grain size (isopleth)
Impact, severity, or damage metric
Loading
Magnitude
Mass
Model start locations
Number of events/year
Number of simulations
Peak ground acceleration
pH
Pressure or overpressure
Probability of exceeding a persistence/duration threshold
Probability of exceeding an arrival time threshold
Probability of exceeding concentration threshold
Probability of exceeding impact density threshold
Probability of exceeding impact energy threshold
Probability of exceeding load threshold
Probability of exceeding thickness threshold
Probability of inundation
Probability/susceptibility of vent opening
Risk metric
Spatial density
Symbols, arrows, or lines
Text description of hazard location
Text only
Thickness (isopach)
Thickness and grain size (combined)
Velocity
Volume
Whole map
Wind rose

Caldera
Complex
Compound
Cone
Crater rows
Explosion crater
Fissure vent
Lava cone
Lava dome
Maar
Pyroclastic cone
Pyroclastic shield
Shield
Stratovolcano
Subglacial
Submarine
Tuff cone
Tuff ring
Tuya
Unknown
Volcanic field
Volcanic remnant