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  1. #mwgic #2026 #Chronotypes #Health
    Well, #WTF does anyone expect when you force people to work when they're exhausted from chronic sleep deprivation (listed as a form of torture in the Geneva Convention) for literally decades. Changing your body clock is a myth.

    medicalxpress.com/news/2026-09

  2. Mw 8.2 Tehuantepec, Mexico Earthquake Rupture Segmentation And A Plate Boundary Revealed By A Relocated Machine Learning Based Aftershock Catalog
    --
    doi.org/10.22541/essoar.150096 <-- shared paper
    --
    science.org/content/article/un <-- shared 2017 technical article
    --
    H/T @Allen Husker | Research Professor and Manager of the Southern California Seismic Network
    “The 2017 Mw8.2 Tehuantepec earthquake is the largest instrumentally recorded normal faulting earthquake in Mexico. It occurred offshore on a reactivated outer rise fault within the Tehuantepec megathrust seismic gap that is within the undefined intersection of the North American & Caribbean & Cocos plates. [The authors] analyze[d] a relocated machine learning generated aftershock catalog that used data from temporary and permanent seismic stations around the Gulf of Tehuantepec to further interpret the rupture process of this earthquake. Similar to other results, [they found] that the earthquake initiated 100 km offshore, running northwest 90 km into the intersection. [Their] findings then show that the rupture jumped 10 km inland as it crossed the trench-perpendicular Tehuantepec Ridge and continued another 60 km before stopping. [They] used finite fault inversions to distinguish between different possibilities for how the fault ruptured. A two-plane normal fault model offset at ridge, best represents the slip. Moment tensors reveal that the first section before the Ridge was highly complex with a large mix of moment tensors. After the jump across the Ridge, the earthquakes are solely thrust mechanism for 60 km. This indicates that the normal slip on the second half of the fault rupture probably over-slipped and the aftershocks represent the stress accommodation. There was a separate N-S trending divergent region at the location where the Tehuantepec earthquake stopped. [They] interpret this to be a break between the remaining sliver of the Caribbean plate and the North American plate…”
    #geology #risk #hazard #earthquake #Tehuantepec #Mexico #faulting #offshore #structuralgeology #megathrust #platetectonics #AI #machinelearning #model #modeling #seismic #seismology #GulfofTehuantepec #spatial #spatialanalysis #rupture #impacts #thrust #normalfaulting #aftershocks

  3. Mw 8.2 Tehuantepec, Mexico Earthquake Rupture Segmentation And A Plate Boundary Revealed By A Relocated Machine Learning Based Aftershock Catalog
    --
    doi.org/10.22541/essoar.150096 <-- shared paper
    --
    science.org/content/article/un <-- shared 2017 technical article
    --
    H/T @Allen Husker | Research Professor and Manager of the Southern California Seismic Network
    “The 2017 Mw8.2 Tehuantepec earthquake is the largest instrumentally recorded normal faulting earthquake in Mexico. It occurred offshore on a reactivated outer rise fault within the Tehuantepec megathrust seismic gap that is within the undefined intersection of the North American & Caribbean & Cocos plates. [The authors] analyze[d] a relocated machine learning generated aftershock catalog that used data from temporary and permanent seismic stations around the Gulf of Tehuantepec to further interpret the rupture process of this earthquake. Similar to other results, [they found] that the earthquake initiated 100 km offshore, running northwest 90 km into the intersection. [Their] findings then show that the rupture jumped 10 km inland as it crossed the trench-perpendicular Tehuantepec Ridge and continued another 60 km before stopping. [They] used finite fault inversions to distinguish between different possibilities for how the fault ruptured. A two-plane normal fault model offset at ridge, best represents the slip. Moment tensors reveal that the first section before the Ridge was highly complex with a large mix of moment tensors. After the jump across the Ridge, the earthquakes are solely thrust mechanism for 60 km. This indicates that the normal slip on the second half of the fault rupture probably over-slipped and the aftershocks represent the stress accommodation. There was a separate N-S trending divergent region at the location where the Tehuantepec earthquake stopped. [They] interpret this to be a break between the remaining sliver of the Caribbean plate and the North American plate…”
    #geology #risk #hazard #earthquake #Tehuantepec #Mexico #faulting #offshore #structuralgeology #megathrust #platetectonics #AI #machinelearning #model #modeling #seismic #seismology #GulfofTehuantepec #spatial #spatialanalysis #rupture #impacts #thrust #normalfaulting #aftershocks

  4. Mw 8.2 Tehuantepec, Mexico Earthquake Rupture Segmentation And A Plate Boundary Revealed By A Relocated Machine Learning Based Aftershock Catalog
    --
    doi.org/10.22541/essoar.150096 <-- shared paper
    --
    science.org/content/article/un <-- shared 2017 technical article
    --
    H/T @Allen Husker | Research Professor and Manager of the Southern California Seismic Network
    “The 2017 Mw8.2 Tehuantepec earthquake is the largest instrumentally recorded normal faulting earthquake in Mexico. It occurred offshore on a reactivated outer rise fault within the Tehuantepec megathrust seismic gap that is within the undefined intersection of the North American & Caribbean & Cocos plates. [The authors] analyze[d] a relocated machine learning generated aftershock catalog that used data from temporary and permanent seismic stations around the Gulf of Tehuantepec to further interpret the rupture process of this earthquake. Similar to other results, [they found] that the earthquake initiated 100 km offshore, running northwest 90 km into the intersection. [Their] findings then show that the rupture jumped 10 km inland as it crossed the trench-perpendicular Tehuantepec Ridge and continued another 60 km before stopping. [They] used finite fault inversions to distinguish between different possibilities for how the fault ruptured. A two-plane normal fault model offset at ridge, best represents the slip. Moment tensors reveal that the first section before the Ridge was highly complex with a large mix of moment tensors. After the jump across the Ridge, the earthquakes are solely thrust mechanism for 60 km. This indicates that the normal slip on the second half of the fault rupture probably over-slipped and the aftershocks represent the stress accommodation. There was a separate N-S trending divergent region at the location where the Tehuantepec earthquake stopped. [They] interpret this to be a break between the remaining sliver of the Caribbean plate and the North American plate…”
    #geology #risk #hazard #earthquake #Tehuantepec #Mexico #faulting #offshore #structuralgeology #megathrust #platetectonics #AI #machinelearning #model #modeling #seismic #seismology #GulfofTehuantepec #spatial #spatialanalysis #rupture #impacts #thrust #normalfaulting #aftershocks

  5. Mw 8.2 Tehuantepec, Mexico Earthquake Rupture Segmentation And A Plate Boundary Revealed By A Relocated Machine Learning Based Aftershock Catalog
    --
    doi.org/10.22541/essoar.150096 <-- shared paper
    --
    science.org/content/article/un <-- shared 2017 technical article
    --
    H/T @Allen Husker | Research Professor and Manager of the Southern California Seismic Network
    “The 2017 Mw8.2 Tehuantepec earthquake is the largest instrumentally recorded normal faulting earthquake in Mexico. It occurred offshore on a reactivated outer rise fault within the Tehuantepec megathrust seismic gap that is within the undefined intersection of the North American & Caribbean & Cocos plates. [The authors] analyze[d] a relocated machine learning generated aftershock catalog that used data from temporary and permanent seismic stations around the Gulf of Tehuantepec to further interpret the rupture process of this earthquake. Similar to other results, [they found] that the earthquake initiated 100 km offshore, running northwest 90 km into the intersection. [Their] findings then show that the rupture jumped 10 km inland as it crossed the trench-perpendicular Tehuantepec Ridge and continued another 60 km before stopping. [They] used finite fault inversions to distinguish between different possibilities for how the fault ruptured. A two-plane normal fault model offset at ridge, best represents the slip. Moment tensors reveal that the first section before the Ridge was highly complex with a large mix of moment tensors. After the jump across the Ridge, the earthquakes are solely thrust mechanism for 60 km. This indicates that the normal slip on the second half of the fault rupture probably over-slipped and the aftershocks represent the stress accommodation. There was a separate N-S trending divergent region at the location where the Tehuantepec earthquake stopped. [They] interpret this to be a break between the remaining sliver of the Caribbean plate and the North American plate…”

  6. Three days left until I can shut up about my Christmas story collection on #kickstarter!

    Until then, I gotta keep shouting "look at my book!"

    So, uh... please look at my book? It comes with bonuses?

    mwl.io/ks

  7. Three days left until I can shut up about my Christmas story collection on #kickstarter!

    Until then, I gotta keep shouting "look at my book!"

    So, uh... please look at my book? It comes with bonuses?

    mwl.io/ks

  8. Three days left until I can shut up about my Christmas story collection on #kickstarter!

    Until then, I gotta keep shouting "look at my book!"

    So, uh... please look at my book? It comes with bonuses?

    mwl.io/ks

  9. 🥰 Saudi-Arabien - 12,538-MW-Solarprojekt steigert Kapazität um über 5 Prozent

    Ein Agrivoltaik-Projekt in Saudi-Arabien nutzt Hi-MO X10 Anti-Dust-Module und steigert die Kapazität um über 5 Prozent. Die Stromkosten sanken um über 30 Prozent.
    energiesmedia.com/solar-irriga…
    #Solar #PV #Erneuerbare

  10. Google-backed energy outfit brings 33 MW of 4 GW #geothermal potential online in #Utah
    The first of three 33 MW GeoBlocks has begun supplying electricity to the grid and is expected to reach commercial operation next week, with another 66 MW of capacity expected to come online by New Year. Fervo says the station has the potential to eventually scale to more than four gigawatts of capacity.
    #FervoEnergy aims to have 100 MW online by New Year and half a gigawatt by 2028
    theregister.com/systems/2026/0

  11. Google-backed energy outfit brings 33 MW of 4 GW potential online in
    The first of three 33 MW GeoBlocks has begun supplying electricity to the grid and is expected to reach commercial operation next week, with another 66 MW of capacity expected to come online by New Year. Fervo says the station has the potential to eventually scale to more than four gigawatts of capacity.
    aims to have 100 MW online by New Year and half a gigawatt by 2028
    theregister.com/systems/2026/0

  12. Google-backed energy outfit brings 33 MW of 4 GW #geothermal potential online in #Utah
    The first of three 33 MW GeoBlocks has begun supplying electricity to the grid and is expected to reach commercial operation next week, with another 66 MW of capacity expected to come online by New Year. Fervo says the station has the potential to eventually scale to more than four gigawatts of capacity.
    #FervoEnergy aims to have 100 MW online by New Year and half a gigawatt by 2028
    theregister.com/systems/2026/0

  13. Google-backed energy outfit brings 33 MW of 4 GW #geothermal potential online in #Utah
    The first of three 33 MW GeoBlocks has begun supplying electricity to the grid and is expected to reach commercial operation next week, with another 66 MW of capacity expected to come online by New Year. Fervo says the station has the potential to eventually scale to more than four gigawatts of capacity.
    #FervoEnergy aims to have 100 MW online by New Year and half a gigawatt by 2028
    theregister.com/systems/2026/0

  14. United States Geological Survey (USGS)

    Sismo de magnitud 5.1 mww, 171 km SE of Lata, Solomon Islands, a una profundidad de 10 Kilometros

    *** Fecha Y Hora ***
    Mexico (UTC-6) : Jueves 1 de Octubre del 2026 a las 1:38 PM
    UTC : Jueves 1 de Octubre del 2026 a las 7:38 PM

    #SismoUSGS #Sismo #USGS #TemblorUSGS #Temblor #Sismologico #MonitorSismico

  15. United States Geological Survey (USGS)

    Sismo de magnitud 5.1 mww, 108 km ENE of Miyako, Japan, a una profundidad de 35 Kilometros

    *** Fecha Y Hora ***
    Mexico (UTC-6) : Jueves 1 de Octubre del 2026 a las 11:17 AM
    UTC : Jueves 1 de Octubre del 2026 a las 5:17 PM

    #SismoUSGS #Sismo #USGS #TemblorUSGS #Temblor #Sismologico #MonitorSismico

  16. United States Geological Survey (USGS)

    Sismo de magnitud 5.3 mww, 0 km NNE of Yōkaichiba, Japan, a una profundidad de 41.649 Kilometros

    *** Fecha Y Hora ***
    Mexico (UTC-6) : Jueves 1 de Octubre del 2026 a las 6:27 AM
    UTC : Jueves 1 de Octubre del 2026 a las 12:27 PM

    #SismoUSGS #Sismo #USGS #TemblorUSGS #Temblor #Sismologico #MonitorSismico