Celestial & Ionospheric Telemetry

Space Weather & EMCOMM

☀️ Live Solar Threat Metrics

Engine Cache Status: Verified Active Sync (23:26:12 EDT)
Geomagnetic (K-Index / A-Index)
K- 3 / 24h Mean: A- 7
G0 - Baseline Normal

The K-Index updates every 3 hours to map current conditions, while the A-Index measures long-duration historical stability over a 24-hour window. Lower scores indicate stable propagation.

X-Ray Flare Class C1.1 R0 - Inactive Background

Tracks high-energy coronal outputs. Background noise classes (A, B, C) leave conditions untouched, while sudden spikes into M or X classifications instantly sever daylight atmospheric reflection planes.

Solar Flux Index (SFI) & Sunspots
147 SFU / SSN: 89

Measures total radio energy emissions from the sun. Scores over 100 heavily ionize the atmosphere, serving as an effective reflecting layer for long-range high-frequency shortwave systems.

Tactical Regional NVIS Assessment
Optimal Regional Bouncing

Near Vertical Incidence Skywave (NVIS) structures bounce skywave loops straight up to blanket a localized area (0–300 miles). High solar noise or severe fading forces an operator to downshift frequencies to maintain links.

📻 HF Radio Band Connectivity Matrix

Use this matrix to confirm active propagation pathways before dialing up regional emergency net coordinates. Match target frequency assignments against verified daylight and nighttime ionization thresholds.

Radio Band Focus Location Spectrum Boundary Allocation Daytime Status Nighttime Status
80m-40m 3.500 – 7.300 MHz POOR FAIR
30m-20m 10.100 – 14.350 MHz GOOD GOOD
17m-15m 18.068 – 21.450 MHz GOOD GOOD
12m-10m 24.890 – 29.700 MHz FAIR POOR

⚡ 24h Solar Flare Event Probability

M-Class Flare (Moderate) 35%
X-Class Flare (Severe / Blackout) 5%

Probabilities are inferred dynamically from active sunspot cluster complexity and base X-ray backgrounds. High spikes indicate imminent threat of solar blackout events.

🌍 D-Layer HF Signal Attenuation

Current Absorption Status
Light Attenuation (Lower HF Softened)

During daylight hours, solar radiation charges the lowest ionosphere layer (D-layer). Sudden ionization spikes turn this layer into a massive RF sponge, heavily degrading or completely choking standard shortwave skip-paths.

🎯 Dynamic Ionospheric MUF Ceiling

Est. Global MUF NoRpt MHz
Solar Wind 365 km/s

Frequencies above the baseline Maximum Usable Frequency (MUF) boundary pass directly through the ionosphere into deep space without reflecting back down. Keep emergency operations below the active target threshold.

🟢 Local Tier-2 Fallback Networks

VHF Local Repeaters 100% Operational
UHF / GMRS Links 100% Operational
Tactical Line-of-Sight 100% Operational

**Operational Rule:** Solar flares and geomagnetic disruptions exclusively hammer the HF skywave bands. Local line-of-sight networks remain entirely unaffected by coronal anomalies.

📻 Shortwave Time & Diagnostics Beacons

If the internet connection or local web application cache fails, use your physical radio hardware to manually check the upper atmosphere's condition.

NIST Automated Broadcast (WWV / WWVH) 2.5 • 5.0 • 10.0 • 15.0 • 20.0 MHz

Broadcasts a continuous voice time tick along with solar alerts at 18 minutes past every hour.

NRC Time Signal (CHU Canada) 3.330 • 7.850 • 14.670 MHz

Uses distinct audio tones that help verify how well signals are bouncing on the lower bands.

🛡️ CRP EMCOMM Protocols

The EMP / CME Threat

A Carrington-level Coronal Mass Ejection (CME) can overload modern power grids. Store primary communication radios, backup power banks, and solar chargers inside tested Faraday enclosures when not in active use.

NVIS Tactical Antennas

How to deploy Near Vertical Incidence Skywave (NVIS) wire antennas to guarantee 0-300 mile regional communications, regardless of solar static.

Line-of-Sight Fallbacks

If global high-frequency bands are dead due to an X-Class flare, pivot team operations immediately to UHF/VHF handheld transceivers.

Telemetry provided courtesy of
Paul L. Herrman, N0NBH