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Earthquake · Sunday, November 1, 2026

Magnitude 2.9 earthquake 53 km WNW of Kingston, Nevada

A magnitude 2.9 (micro) earthquake struck 53 km WNW of Kingston, Nevada on Sunday, November 1, 2026 at , at a depth of 7 km (shallow).

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The epicenter (largest marker, center) on EarthBrowser’s globe with the other recent earthquakes in the region. Tap a marker to open its 3D cross-section; drag to look around.
Magnitude
2.9Micro
Depth
7km · shallow
Time
Epicenter
39.33° N
117.67° W
Aftershocks so far
0within 250 km
Largest aftershock
—

9 days ago · USGS id nn00926505 · last revised

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The full globe opens the 3D cross-section: the hypocenter at depth, the plate boundary and subducting slab where there is one, the aftershock sequence as it grows, and the sea floor around an offshore epicenter.

What a magnitude 2.9 means

Micro earthquakes are generally not felt and are recorded only by seismographs.

A magnitude 2.9 releases about 34 times the seismic energy of a magnitude 1.9, roughly the energy of 0 tonnes of TNT. Magnitude measures the energy released at the source; how hard the ground shook at any one place depends on distance, depth and local geology, and is reported separately as intensity.

Shallow earthquakes (under 70 km) release their energy close to the surface, so shaking is stronger and more damaging near the epicenter than for a deeper quake of the same size.

Nearby earthquakes and aftershocks

This event is part of a sequence: a larger magnitude 3.7 struck 214 km away on Oct 2, 10:00 UTC, so this is most likely one of its aftershocks.

Time (UTC)MagnitudeDepthDistanceLocation
before 1.9 0 km 226 km 50 km S of Silver Peak, Nevada
before 1.7 3 km 87 km 34 km SSE of Lovelock, Nevada
before 1.7 5 km 115 km 20 km ESE of Silver Springs, Nevada
before 1.7 4 km 111 km 31 km ENE of Lovelock, Nevada
before 1.6 1 km 129 km 30 km SE of Mina, Nevada
before 1.6 1 km 161 km 19 km ESE of Spanish Springs, Nevada
before 2.3 8 km 142 km 82 km SSW of Eureka, Nevada
before 1.5 4 km 214 km 26 km S of Dyer, Nevada
before 1.4 1 km 230 km 17 km SW of Toms Place, CA
before 2.7 13 km 171 km 32 km SE of Bodie, CA
before 2.8 11 km 174 km 39 km SSW of Qualeys Camp, NV
before 1.5 6 km 232 km 19 km SW of Toms Place, CA
before 1.6 8 km 126 km 13 km E of Fernley, Nevada
before 2.3 9 km 199 km 10 km E of Gerlach, Nevada
before 1.6 6 km 229 km 17 km WSW of Toms Place, CA
before 1.5 8 km 126 km 13 km E of Fernley, Nevada
before 2.1 7 km 125 km 14 km ESE of Fernley, Nevada
before 1.9 0 km 125 km 14 km ESE of Fernley, Nevada
before 2.1 10 km 124 km 14 km E of Fernley, Nevada
before 1.1 10 km 218 km 4 km W of Toms Place, CA
before 1.6 6 km 125 km 13 km ESE of Fernley, Nevada
before 1.6 6 km 230 km 12 km SSW of Aspen Springs, California
before 2.4 9 km 113 km 21 km ESE of Silver Springs, Nevada
before 2.4 2 km 233 km 19 km SW of Toms Place, CA
before 1.6 11 km 156 km 30 km NE of Benton, California
before 3.0 15 km 137 km 25 km SSW of Mina, Nevada
before 1.5 5 km 223 km 48 km SSE of Silver Peak, Nevada
before 2.9 2 km 233 km 19 km SW of Toms Place, CA
before 1.5 11 km 119 km 18 km SE of Silver Springs, Nevada
before 1.5 10 km 115 km 15 km NNW of Walker Lake, Nevada

Frequently asked questions

How is earthquake magnitude measured?

Modern magnitudes are moment magnitudes (Mw), computed from the seismic moment: the area of the fault that slipped, how far it slipped and the rigidity of the rock. Each whole step up the scale is about 32 times more energy, so a magnitude 7 releases roughly a thousand times the energy of a magnitude 5.

What is the difference between magnitude and intensity?

Magnitude is one number for the whole earthquake, describing the energy released at the source. Intensity describes the shaking at a particular place, on the Modified Mercalli scale from I (not felt) to X+ (extreme), and falls off with distance from the epicenter.

What is an aftershock?

An aftershock is a smaller earthquake in the same area after a larger one, as the crust around the ruptured fault adjusts to the new stresses. They are most frequent in the first hours and days and fade over weeks to months, though a large mainshock can produce aftershocks for years.

Why do the magnitude and location change?

The first solution uses the nearest stations only. As recordings arrive from more seismographs around the world, USGS revises the magnitude, depth and epicenter, sometimes several times in the first hours. This page reflects the latest revision.

Where does this earthquake data come from?

From the U.S. Geological Survey’s real-time earthquake feeds, which combine the USGS National Earthquake Information Center with regional seismic networks worldwide. EarthBrowser ingests the feed every minute.

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