The Largest Ionospheric Disturbances Produced by the HAARP HF Facility

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The Largest Ionospheric Disturbances Produced by the HAARP HF Facility Paul A. Bernhardt 1, Carl L. Seifring 1, Stanley J. Briczinski 2, Elizabeth A. kendall 3, Brenton J. Watkins 4, William Bristow 4, Robert Michell 5, Mike McCarrick 6, A. Lee Snyder 6 1 Plasma Physics Division, Naval Research Laboratory 2 NRL/NRC Post Doc 3 SRI International, Menlo Park, CA 4 Geophysical Institute, University of Alaska, Fairbanks, AK 5 Southwest Research Institute, San Antonio, TX 6 Marsh Creek LLC, Anchorage AK Research Sponsored by DARPA BRIOCHE Program

HAARP Disturbances Ionospheric Modification Physics Artificial Ionization Associated Stimulated Electromagnetic Emissions Largest Artificial Density Below Natural Ionosphere Use of Twisted Beam to Form Stable Ionization Longest Duration Plasma Cloud VHF/UHF Scintillations Historical Results Strongest SATCOM Scintillations Role of Artificial Ionization Implications of Artificial Disturbances

Ionospheric Modification with High Power Radio Waves Electron Temperature Elevation Plasma Pressure and Density Changes VLF Ducts and Conductivity Modification VLF Waveguides and VLF Generation High Power Electromagnetic Wave Beam Plasma Irregularity Formation Electrostatic Wave Generation Enhanced Radar Scatter Ion Line Low Frequency Waves Enhanced UHF/L-Band Scintillations Plasma Line Mode Conversion Stimulated Electromagnetic Emissions Parametric Decay and Strong Turbulence High Frequency Waves Electron Acceleration Artificial Aurora and Ionization

Artificial Ionization Cloud Formed Around 4.325 MHz 05:30 05:31 05:32 05:33

SEE and AI Observed during 3 rd f ce Frequency Sweep

2 nd, 3 rd, 4 th, and 6 th Harmonic Artificial Plasma Clouds Near Multiples of 1.44 MHz Electron Gyro Frequency

HF Array Beam LG Modes, Briczinski et al. 2015 Pencil Beam Twisted Beam 1 Gain (db) Twisted Beam 2 P=0 L=0 P=0 L=1 E (V/m) P=0 L=2

Simulations of Plane EM Wave Interactions with Plasma Plate and Ring 3 MHz Pump 0.9 km Diameter Cloud Plasma Plate E (V/m) Plasma Ring Enhanced Fields and AI on Bottom Focused Fields and AI on Axis

14 March 2013 01:00 to 01:20 GMT Extended Artificial Ionization with 5.8 MHz Twisted Beam Altitude (km) Altitude (km) AI with 14 o Magnetic Zenith Pencil Beam Frequency (MHz) AI with 7 o Intermediate Zenith Twisted Beam Frequency (MHz)

250 14 March 2013 01:30 to 04:00 GMT Extended Artificial Ionization with 5.8 MHz Twisted Beam HAARP 14 Mar 2013, 01:30 GMT 250 HAARP 14 Mar 2013, 01:56 GMT km Altitude 250 200 150 250 HAARP 14 Mar 2013, 01:02 GMT Natural Artificial 2 Minutes MHz 100 0 2 4 6 8 Plasma Frequency HAARP 14 Mar 2013, 02:30 GMT km Altitude 200 150 MHz 100 0 2 4 6 8 Plasma Frequency 250 HAARP 14 Mar 2013, 03:00 GMT km Altitude 200 150 MHz 100 0 2 4 6 8 Plasma Frequency 250 HAARP 14 Mar 2013, 03:30 GMT km Altitude 200 150 MHz 100 0 2 4 6 8 Plasma Frequency ½ Hour 1 Hour 1 ½ Hour 250 HAARP 14 Mar 2013, 04:05 GMT km Altitude 200 150 km Altitude 200 150 km Altitude 200 150 MHz 100 0 2 4 6 8 Plasma Frequency MHz 100 0 2 4 6 8 Plasma Frequency MHz 100 0 2 4 6 8 Plasma Frequency 2 Hours 2 ½ Hour 3 Hours

Underwhelming UHF Scintillations Produced by EISCAT Heating in Norway 2 2 I I S4 = = 0.11 I S 4 = 0.1

Weak Scintillations at 150 and 400 MHz Produced by HAARP Heating in Alaska Secan et al., AFRL Report AFRL-VS-HA-TR-2008-1139 VHF S4 = 0.4 Amplitude Scintillation Index S4 = I I 2 2 I UHF S4 = 0.2

COMMX Working with HAARP TacSat-4 UHF Downlink TACSat4 Actively Pointed to Ground Receiver Modified Region F-Layer Ionosphere High Power HF Ground Receiver HAARP Strong VHF Scintillations

13 March 2013 TACSat4 COMMX Satellite Experiments Frequency (Hz)

14 March 2012 TACSat4 253 MHz Scintillations 4 th (5.8 MHz) Gyro Harmonic HF Continuous Twisted Beam Moderate Scintillation Weak Scintillation

Radio Propagation CubeSat: PROPCUBE PROPCUBE 380 to 400 MHz UHF Band 2340 to 2380 MHz S-Band Frequency Pairs: (2340/390) = (2346/391) = (2352/392) (2376/396) = 6 Launch Schedules 13 July 2015 (PROPCUBE-2 Fauna) 51.6 Degree Inclination Space-X 27 September 2015 (PROCUBE-1 Flora and PROPCUBE- 3 Meriwether) 63 Degree Inclination for HAARP Ionospheric Electron Density and Irregularities Total Electron Content by Differential Group Delay Plasma Irregularities by Amplitude and Phase Scintillations Detection of Artificial Ionization/Irregularities Generated by HAARP, Arecibo, SURA

Artificial Ionization Clouds in Near-Earth Space Goal: Understand the Physics for RF Generation of Artificial Plasma Clouds in the Upper Atmosphere Current Artificial Ionization (AI) Technique High Power Radio Waves Tuned to Electron Gyro Frequency Harmonics Single Mode Pencil Beam on the Bottomside Ionosphere Limited Duration and Stability of Artificial Ionization Clouds Improved AI Technique Developed by NRL Employ Twisted Beam of High Power RF Tune to 2nd, 3rd, 4th, 5th or 6th Electron Cyclotron Harmonic at Selected Altitude Decrease Breakdown Power Requirements with Seed Ionization Clouds Theoretical Support of Concept Electromagnetic Models of Pump Wave Propagation and Electrostatic Wave Generation Electron Acceleration Model Leading to Enhanced Ionization Full Wave Simulations of HF Wave Self-Action with AI Clouds Experimental Support of Concept Demonstration of Long Duration AI Cloud Using HAARP in Alaska Radio Wave Diagnostics of Stimulated Electromagnetic Emissions and Enhanced VHF/UHF Scintillations. Localized Control of Ionospheric Propagation by AI New HF Reflection Layers Below 200 km Altitude Enhanced Plasma Irregularity Turbulence that Distorts Trans-Ionospheric Radio Signals Virtual Altitude (km) 253 MHz Natural F-Layer Artificial Ionization Plasma Frequency (MHz) Strong VHF Scintillation Moderate VHF Scintillation Weak Scintillation (Top) Artificial ionization below the ambient ionosphere generated by HAARP twisted beam tuned to 5.83 MHz. (Bottom) Intense VHF Scintillations from TACSat4 for EM wave propagation through the HAARP modified volume.