Real-Time FeedsLive monitoring (NOAA SWPC & USGS) — placed at the bottom to keep the main narrative focused on overall state
Live Feeds
Solar Wind + Geomagnetic Indices
Sources: NOAA SWPC (live), Kyoto Dst (via NOAA)
Storm Watch
Geomagnetic Activity Levels
Storm Level (Kp)
--
0-9 scale (5+ = storm)
Unknown
Ring Current (Dst)
--
nT (negative = storm)
Unknown
Solar Flare Level
--
X-ray intensity
Unknown
Radiation Storm
--
high-energy particles
Unknown
Solar Wind Monitor
Sun-Earth Energy Transfer
Solar Wind Push
--
nPa (pressure on shield)
Nominal
Magnetic Alignment
--
degrees (180° = max transfer)
Aligned
Energy Transfer
--
coupling factor
Quiet
Field Stability
--
Stable
Wind Speed
--
km/s from Sun
Unknown
Sun's Field Direction
--
nT (negative = energy in)
Unknown
Particle Density
--
particles per cm³
Unknown
Plasma Temperature
--
Kelvin
Unknown
Pressure Change
--
nPa per minute
Stable
Overall Activity
--
combined score
Quiet
When the Sun's magnetic field points opposite to Earth's (180°), energy transfers most efficiently—like two magnets clicking together. Higher pressure means the solar wind is pushing harder on our shield.
Geospace Model
Magnetosphere Dynamics (Real-Time)
Source: NOAA SWPC Geospace model (SWMF) cut planes
Plasma Velocity
Plasma Density
Plasma Pressure
About: 2D equatorial (x-y) and noon-midnight meridian (x-z) cut planes in GSM coordinates.
NASA CCMC operational and research models — skill varies by metric; evidence tier indicates documentation status
Model Skill & Limitations: The models below are physics-based nowcasts and forecasts from NASA's Community Coordinated Modeling Center (CCMC). Operational models (Ovation-Prime, WSA-ENLIL, CTIPe) are used by NOAA and other agencies but have varying skill depending on conditions. Research models (GONG, PDF) are experimental. All model outputs should be treated as context, not predictions. For authoritative operational guidance, verify at NOAA SWPC.
Space Weather Dashboard
NASA CCMC ISWA — MagPy Layout
ISWA blocks embedding via Content Security Policy (frame-ancestors). Use the link below.
About CCMC Models: The Community Coordinated Modeling Center validates and distributes space weather models. "Operational" models are used by NOAA/agencies; "Research" models are experimental. Model skill metrics and validation reports are available at ccmc.gsfc.nasa.gov.
Interactive globe (external). If the embed is blocked by browser/security headers, use the link below.
Audience & Use: This platform aggregates public data feeds and peer-reviewed context to support cross-domain monitoring and hypothesis generation.
For official advisories, watches, warnings, and operational guidance, refer to primary sources such as
NOAA SWPC
and
USGS.
Scope: Exploratory research layer (explicitly labeled as hypothesis where applicable); not an official forecast.
For operational guidance, verify at
NOAA SWPC
and
USGS.
Research Thesis
Multiple Earth systems are exhibiting documented anomalies in the same timeframe.
This dashboard synthesizes peer-reviewed findings to ask:
are these independent fluctuations, or coupled manifestations of deeper processes?
Verified Data
Documented Mechanisms
Research Hypotheses
What This Is — And What It Isn't
This Dashboard Is:
A synthesis of peer-reviewed scientific findings
A monitoring tool for documented Earth system anomalies
A research framework for investigating potential coupling
Explicitly uncertain about timelines and outcomes
This Dashboard Is Not:
A prediction of specific events or dates
An official scientific consensus position
An official governmental website or alerting service
A claim that catastrophe is imminent
Affiliated with any conspiracy theories
Earth's Magnetic Shield
How Strong Is Our Protection?
Verified Data
Sources: IGRF-14, ESA Swarm Mission, NOAA NCEI
Shield Strength
--
PADM2M ADM (Ziegler & Constable) — peak-normalized over 0–2 Myr (100% = max in window)
Needs Calibrationdefine peak
North Pole Movement
60+
km/year — was only 10 km/yr in 1900
Unusual6x faster than 1900
Weak Spot Growth
Rapid
expansion — now covers South America to Africa
Expandingaccelerated since 2020
How Fast It's Weakening
~10–15×
vs long-term reconstructions (synthesis estimate; model-dependent)
Above Baselinemodel-dependent
Systems AnalysisCross-domain patterns and open questions
Deep Inside Earth
Subsurface Signals Verified
Nature 2024, IERS, NASA GISS
Inner Core Spin
SLOWING
rotation regime shifted since ~2010 (interpretation varies)
Changed StateNature 2024
Day Length Record
-1.66ms
shortest day in recorded history
RecordIERS verified
Schumann Amplitude (Regional)
i
High
amplitude anomaly detected
Anomalousregional data
Ocean Heat Mystery
~0.2°C
more than expected (approx.; ~0.15–0.25°C)
Under StudySchmidt, Nature 2024
Metric Note: Schumann Amplitude vs Q-Factor
Clarification: The "High" signal refers to spectral power amplification (amplitude) observed at specific regional monitoring stations (e.g., Tomsk, Russia; Cumiana, Italy), not the global "Q-factor" in the strict physics sense.
Context: Reported "amplitude" depends on station hardware, processing, and display scaling. Treat regional station excursions as a screening signal that warrants verification and cross-station comparison; global significance and calibrated physical magnitude are not established here.
The Hypothesis: When Earth's inner core slowed down (around 2010), the rest of the planet may have sped up to compensate—like a spinning figure skater pulling in their arms. This could explain correlations between shorter days and electromagnetic activity, but the coupling mechanism remains under study.
Learn More: Why does the inner core matter?
Earth's inner core is a solid iron ball about the size of the Moon, floating in a sea of liquid metal (the outer core). It normally spins slightly faster than the rest of Earth.
The outer core's churning motion generates Earth's magnetic field—our shield against solar radiation. Changes in the inner core can affect how this "dynamo" works.
A 2024 study in Nature found evidence for a change in inner-core rotation state around 2010 (transition between super-rotation and sub-rotation). If confirmed and mechanistically linked, this could matter for Earth's magnetic field and rotation.
The Big Picture
Seven Systems Showing Anomalies
Synthesis
Each item is individually sourced; grouping them into a single "cluster" is a synthesis choice
Geomagnetic Field
Documented Decline
ESA Swarm
Inner Core Spin
Rotation Changed
Nature 2024
Day Length
Record Short Days
IERS
Schumann Resonance
Regional Anomalies
Tomsk/INRIM
CO₂ Growth
+3.72 ppm (2024)
NOAA
Arctic Methane
Above Projections
NOAA/ESRL
Ocean Heat
Model gap (2023) under study
NASA GISS
Why This Matters: Multiple domains show documented anomalies in a similar timeframe. This motivates careful synthesis and hypothesis testing, but it is not evidence of causality on its own (selection effects, shared drivers, and measurement biases can create apparent clustering).
Learn More: What does "connected" mean?
Think of Earth as a system of spinning tops nested inside each other: the solid inner core, the liquid outer core, the mantle, and the crust we live on. They're all connected by physics.
When one part changes (like the inner core slowing down), it affects the others through conservation of angular momentum—the same principle that makes a figure skater spin faster when they pull in their arms.
This dashboard tracks measurements from different scientific fields (geology, space weather, climate science) that are not typically expected to co-vary. One hypothesis is that a deeper driver could be influencing multiple domains; alternative explanations include coincident variability and measurement/coverage biases.
Supporting Context & Methodology
Supporting Context
Corroborating Observations Verified
Sources: peer-reviewed Earth rotation, upper-atmosphere, ocean heat, and geomagnetic literature (see Reference Library)
Other unusual findings from scientific papers — all happening in the same timeframe (2005-2025):
Upper atmosphere contracted: Thermospheric density at ~400 km was reported as ~10–30% below climatological expectations during 2007–2009 (GRL 2010)
Ionosphere weakening: NmF2 anomaly reached up to ~20% by 2022 relative to a pre-1980 baseline (JSWSC 2025)
Deep mantle change: Decadal change of seismic structure in Earth's lowermost mantle reported from earthquake doublets (Nature Communications 2025)
Atmosphere Changes
Atmospheric Loading Verified
NOAA, NASA AGGI
CO₂ Jump (2024)
+3.72
ppm — 27% higher than previous record
RecordNOAA verified
Arctic Methane
Elevated
trend above some projections — timing uncertain
Above ModelsNOAA
Air Conductivity
Elevated
ionization / electrical environment (qualitative)
Elevated
Heat-Trapping Effect
+54%
stronger since 1990
IncreasingNASA AGGI
One documented feedback loop: Frozen Arctic soils contain methane. As soils thaw, methane can be released, increasing radiative forcing and potentially accelerating further thaw. Magnitude and timing remain under active study.
Learn More: What's a feedback loop?
A feedback loop is when the output of a process becomes its input, creating a cycle. A "positive" feedback loop amplifies itself—it's not positive in the good sense, but in the mathematical sense of growing.
Example: Warming → ice melts → less white surface to reflect sunlight → more heat absorbed → more warming → more ice melts...
The Arctic methane situation is particularly concerning because methane is 80x more potent than CO₂ over 20 years. Once these feedback loops accelerate, they become very difficult to stop.
Important: These windows are derived from synthesis work, not official scientific forecasts. They represent hypotheses about when forcing cycles may align—treat as a research framework for enhanced monitoring, not as predictions.
Learn More: Why these windows?
These windows are identified based on: (1) documented forcing cycle alignments (lunar nodal, solar, inner core oscillation), (2) paleomagnetic precedent from events like the Laschamp excursion, and (3) the observed acceleration in SAA expansion since 2020.
They represent research hypotheses identifying when enhanced monitoring may be valuable—not predictions. The scientific community has not reached consensus on whether these alignments are significant.
Sources: geomagnetic field & SAA literature, paleomagnetism, Earth rotation/LOD, space weather context (see Reference Library)
Important: The content below represents scenario reasoning derived from a research synthesis.
This content is not a prediction. Use it to compare hypotheses against sources.
Phase
ZAm²
Forcing Alignment
Biosphere / Systems Impact
Primary Risk
1: Pre-Indigo (Pre-2010)
~8.2
IC super-rot
Baseline; localized anomalies (e.g., SAA ops)
Baseline; local nav errors
2: Contemporary (2010-2035)
~5.8
IC state shift · SC25 max · Lunar major
Marine heatwaves; SAA expansion; early migratory disruption
Next: Lunar minor standstill 2033-34 · SC26 min ~2030-31 · IC max sub-rot ~2043-45
The sections below summarize the primary scenario drivers used to interpret this timeline, and the downstream biosphere impact gradient under the hypothesis.
Scenario Windows (Shared Timeline)
Window
Interpretation
2024-2025
Lunar major standstill · SC25 peak · IC sub-rotation regime active
2028-2034
6-year resonance windows · SC26 min ~2030-31 · lunar minor standstill 2033-34
2042-2048
IC max sub-rotation (~2043-45) · lunar major standstill (2043-44) · SC27 min (~2041-42)
Scenario Drivers
Scenario Drivers Hypothesis
Sources: peer-reviewed geomagnetism, tidal forcing, solar cycle, and Earth rotation literature (see Reference Library)
Mechanisms & Forcing
Hypothesized drivers used to interpret the shared timeline above:
Field secular-variation change (hypothesis): some reconstructions discuss a possible change in behavior around the mid-19th century; proposed mechanisms remain under study (e.g., meridional gyre circulation hypothesis).
Nonlinear decline models (hypothesis): some analyses fit modern dipole-moment decline using nonlinear forms (e.g., accelerated/compound behavior). This is not a consensus model; compare against simpler baselines and uncertainties.
Lunar nodal (18.6y): major standstills 2024-25, 2043-44 (tidal torque modulation).
Solar cycles: Schwabe (11y) and Hale (22y) modulate heliospheric shielding and storm probability.
Sub-decadal oscillations: 6-year LOD/IC libration and 8.6-year signatures appear in rotation/jerk literature.
Impacts & Uncertainties
Impacts & Uncertainties (Scenario) Documented
Sources: paleomagnetism, space medicine, ecology/magnetoreception literature (see Reference Library)
Biosphere Impact Gradient
Based on synthesis of paleomagnetic records, space medicine, and ecosystem science:
Biosphere impacts are integrated into the phase transition timeline above. The pathways below summarize proposed mechanisms.
Key Pathways (from literature)
Radiation-Ozone-UV cascade: Weaker field → cosmic ray penetration → ozone depletion → UV-B increase
Navigation disruption: Magnetoreception failure in migratory species, pollinators
Cardiovascular: Space medicine literature evaluates cardiovascular risks under elevated radiation exposure; findings are active research and may have confounding limitations
Neurological: EEG changes during geomagnetic storms; circadian disruption
Why It Matters
A weakening magnetic field has practical consequences. Below are the most likely impact domains:
Technology
Satellite drag & radiation exposure. Increased thermospheric density and radiation environment during active solar conditions are known operational risk factors for satellites.
Food Security
Agricultural stress factors. UV-B effects on crops, pollinator navigation, and weather patterns are documented stressors worth monitoring.
Human Health
Space medicine literature: Some studies report higher cardiovascular risks associated with radiation exposure outside Earth's magnetosphere; interpret cautiously due to cohort and confounding limitations.
Ecosystems
Navigation disruption. Migratory birds, bees, and sea turtles rely on magnetic field for navigation. Research suggests significant disruption could impact populations.
Learn More: The Laschamp Precedent (42,000 years ago)
We have a historical example. The Laschamp Event was a magnetic excursion ~42,000 years ago when Earth's field dropped to 5% of current strength for ~1,800 years.
What has been discussed in the literature: Some studies propose that elevated radiation/UV during low-field intervals could have contributed to ecological and behavioral pressures. These associations are debated and not a single-cause attribution.
The open question: If current decline rates persist (a significant assumption), field strength could reach substantially lower levels on shorter timescales than simple linear extrapolation suggests. However, paleomagnetic records show recoveries and excursions without reversal—the trajectory is not predetermined.
Open Questions
Model–Observation Gap (2023)
2023 temperatures exceeded expectations. Hypotheses include aerosol changes, ENSO dynamics, internal variability, and ocean heat uptake distribution.
Some analyses discuss an order-of-magnitude model–observation gap for 2023 on the order of ~0.15–0.25°C (depending on dataset and baseline). El Niño, reduced aerosols, and Hunga Tonga do not fully account for the anomaly in some analyses. Multiple hypotheses are being evaluated, including ocean heat uptake distribution and deep-ocean contributions.
Monitoring Blind Spots
Seafloor heat flux: No systematic global monitoring of submarine volcanic heat
Deep ocean temps: Argo floats only recently extended to abyssal depths
Core-mantle boundary: Inferred from seismology only; no direct measurement possible
Geomagnetic field: Satellite era spans only ~50 years; paleomagnetic records are coarse
The implication: We may be missing signals from deep Earth processes because we're not looking for them. 80% of Earth's volcanism occurs underwater—largely unmonitored.
Research Sources
Research Sources
Source note: This synthesis is built from independently compiled analysis and peer-reviewed literature (see the Reference Library for primary sources).
The presence of anomalies across multiple Earth system domains warrants investigation into potential coupling and shared drivers. The research question: are these independent fluctuations, or manifestations of a shared underlying process?
Glossary & Definitions
Definitions used throughout the dashboard to avoid metric conflation.
Dipole moment: A measure of the strength of Earth’s dominant, dipole-like magnetic field component (a global-scale quantity; often reported in ZAm² in geophysics literature). This is not the same as local intensity at a specific location.
Field intensity (nT): Local magnetic field strength at a point (e.g., within the South Atlantic Anomaly). Local intensity can change while the global dipole moment changes differently.
South Atlantic Anomaly (SAA): A region of unusually low magnetic intensity where satellites can experience increased radiation exposure. “SAA growth” can refer to geographic area, intensity minimum, or spatial drift—these are distinct.
Kp index: A planetary geomagnetic activity index derived from multiple magnetometer stations; used as a summary measure of geomagnetic disturbance.
Dst index: An index related to the ring current; strongly negative values indicate geomagnetic storm conditions.
AGGI / heat-trapping effect: An index summarizing the net radiative forcing from long-lived greenhouse gases (as reported by NOAA/NASA). It is a greenhouse-gas forcing metric, not total climate sensitivity.
“Models” (climate): In this dashboard, this refers to peer-reviewed comparisons between observations and established modeling ensembles. The presence of a model–observation gap does not imply a single cause.
Mid-19th Century Baseline (Hypothesis)
Some geomagnetic reconstructions discuss a potential change in secular-variation behavior around the mid-19th century. Quantitative rates and ratios depend on the chosen model, metric (dipole moment vs local intensity), and baseline; this dashboard treats the "regime shift" as a working hypothesis rather than a settled parameter.
Inner Core Sub-rotation
Nature (2024) confirms the inner core super-rotated relative to the mantle until 2009-2010, then paused and began sub-rotating. This transition correlates with record-short days measured by atomic clocks.
This research synthesis draws from 100+ peer-reviewed sources spanning geophysics, paleomagnetism,
space medicine, climatology, and ecosystem science. Citations are organized by category.
Geomagnetic Field Dynamics & South Atlantic Anomaly
[1] Chulliat, A., et al. (2020). "South Atlantic Anomaly expansion and geomagnetic moment change." Journal of Geophysical Research, 125(8). DOI
[9] Constable, C. G., & Korte, M. (2015). "Centennial to millennial-scale geomagnetic field variations." Journal of Geophysical Research, 120(3).
[146] Finlay, C. C., et al. (2020). "The International Geomagnetic Reference Field: the 12th generation." Earth, Planets and Space, 72(1). DOI
[161] Korte, M., & Constable, C. G. (2011). "Improving geomagnetic field reconstructions for 0-3 ka." Physics of the Earth and Planetary Interiors, 188(3-4).
[167] Tangborn, A., & Kuang, W. (2018). "Geomagnetic core field models and deep mantle dynamics." Geochemistry, Geophysics, Geosystems, 19(8).
[168] Olson, P., & Christensen, U. R. (2006). "Dipole moment scaling for parametric dynamos." Earth and Planetary Science Letters, 250(3-4).
[173] Alken, P., et al. (2021). "Evaluation of candidate models for the 11th generation IGRF." Earth, Planets and Space, 73(1).
[176] Thébault, E., et al. (2015). "International Geomagnetic Reference Field: the 12th generation." Geophysical Journal International, 206(2).
ESA Swarm ESA Swarm Mission. "Earth's Magnetic Field Observations." (2020-2025). Link
Inner Core Dynamics & Deep Earth
Wang et al. (2024) "Inner core backtracking by seismic waveform change reversals." Nature, 631:340-343. DOI
[140] Sakuraba, A., & Iwayama, T. (2020). "Global zonal flow modulation of magnetic helicity flux in the Earth's core." Nature Geoscience, 13(1).
[154] Bloxham, J., & Jackson, A. (1991). "Fluid flow near the core-mantle boundary." Reviews of Geophysics, 29(3).
Nature Comms (2025) Zhang, X., & Wen, L. "Decadal change of seismic structure in the Earth's lowermost mantle." Nature Communications. DOI
Paleomagnetism & Geomagnetic Reversals
[213] Vogt, S., et al. (2010). "New paleomagnetic results from the Laschamp geomagnetic reversal." Journal of Geophysical Research, 115(B7).
[219] Laj, C., & Kissel, C. (2004). "The Laschamp excursion revisited." Earth and Planetary Science Letters, 219(1-2).
[222] Finlayson, C. (2004). "Neanderthals and Modern Humans." Oxford University Press.
Science (2021) Cooper, A., et al. "A global environmental crisis 42,000 years ago." Science, 371(6531). DOI
PNAS "Fast geomagnetic reversals" - Levantine Iron Age pottery evidence. DOI
NSR (2023) "Magnetic field variability as evolutionary driver." National Science Review, 10(6). DOI
Subsurface EM & Schumann Resonances
Tomsk State University "Schumann Resonance Monitoring Data (SOS)." Data Source
NASA (2014) Schumann resonance visualization. Visualization (visual product; not a station calibration reference)
Frontiers Earth Sci (2023) "Solar cycle modulation of Earth-ionosphere cavity deformation." Link
[112] Price, C. (2016). "ELF electromagnetic waves from lightning: The Schumann Resonances." Atmosphere, 7(9).
[118] Williams, E. R. (1992). "The Schumann resonance: A global tropical thermometer." Science, 256(5060).
INRIM (Italy) "Electromagnetic time-frequency analysis (Cumiana Station)." Link
Earth Rotation, LOD & Polar Motion
IERS International Earth Rotation and Reference Systems Service. Earth Orientation Parameters. Link
Sensors (2022) "Free Core Nutation phase jump 2021-2022." Sensors. Link
Earth, Planets and Space (2024) Yamaguchi, R., & Furuya, M. "Can we explain the post-2015 absence of the Chandler wobble?" DOI
GRL (2025) Jeon, T., et al. "Diminished Chandler Wobble After 2015: Link to Mass Anomalies in 2011." DOI
BIPM (2022) CGPM Resolution 4: "On the use and future development of UTC" (leap second / continuous UTC policy). Link
IERS (2025) Message 530: CCTF-IERS workshop on negative leap second (context + risk framing). Link
Citation Note: Numbered references (e.g., [1], [146]) correspond to entries in the Reference Library above.
Inline URL citations link directly to source material.
Magnetoreception & Animal Navigation
[45] Diebel, C. E., et al. (2000). "Magnetite defines a vertebrate magnetoreceptor." Nature, 406(6793).
[200] Reppert, S. M., & de la Iglesia, H. O. (2007). "Maternal regulation of circadian rhythm." Neuron, 56(3).
[203] Wiltschko, W., & Wiltschko, R. (2019). "Magnetoreception in birds." Journal of the Royal Society Interface, 16(160). Link
[206] Åkesson, S., et al. (2005). "Navigation by magnetic cues in migratory birds." Animal Behaviour, 70(5).
PMC (2023) "European robins and geomagnetic storms." PMC6451375
PMC (2023) "Honeybee foraging near power lines." PMC10181175
Human Health & Space Medicine
CBC (2016) Astronaut cardiovascular risk reporting. Link
Nature (2018) "High-LET radiation DNA repair dysfunction." Scientific Reports. DOI
ESA SSA "EEG studies during geomagnetic storms." PDF
PMC (2023) "Heart rate variability and geomagnetic activity." PMC10740910
Cambridge (1994) "Geomagnetic storms and depression hospital admissions." British Journal of Psychiatry. DOI
HFSP "Discovery of human geomagnetic sensory system." Link
Frontiers Immunol "Cosmic radiation immune suppression." DOI
Climate, Ocean Heat & Atmospheric Dynamics
Nature (2024) Schmidt, G. "Confounding 2023 Heat Anomaly." Nature, 627:467. DOI
GRL (2010) Emmert, J. T., Lean, J. L., & Picone, J. M. "Record-low thermospheric density during the 2008 solar minimum." Geophysical Research Letters. DOI
JSWSC (2025) "Long-term trends of ionospheric electron density related to global warming." Journal of Space Weather and Space Climate. Link
Phys Med Biol (2002) Diffey, B. L. "The solar UV spectrum and the ozone layer." Physics in Medicine and Biology, 48(18).
Core-Mantle Coupling Dynamics: Peer-reviewed literature on thermal, gravitational, and electromagnetic coupling between Earth's core and mantle systems.
Angular Momentum Exchange: Documented in Nature (2024) and Geophysical Research Letters regarding inner core dynamics and LOD variations.
Independent Research Synthesis
Independent synthesis compiled from the sources in this library and the on-page evidence-tier labeling. This is not a standalone peer-reviewed paper.
Citation Note: Numbered references (e.g., [1], [146]) correspond to entries in the Reference Library above.
Inline URL citations link directly to source material. All sources are peer-reviewed unless otherwise noted.
Last Updated: January 2026 · Total Sources: 100+ peer-reviewed papers and data repositories