The Heart’s Hidden Intelligence: Solar Storms, Coherence and Consciousness

A conversation with Prof. Abdullah Alabdulgader on heart rate variability, geomagnetic storms, heart coherence, and the heliobiology research lineage from Tchijevsky through Halberg to today.

About the Guest

Prof. Abdullah Alabdulgader is an interventional cardiologist, founder and CEO of the Prince Sultan Cardiac Center in Saudi Arabia, and creator of the King of Organs conference. The Center treats more than 70,000 patients annually and ranks first in Saudi Arabia’s Ministry of Health rankings. Prof. Alabdulgader was the first surgeon in Saudi Arabia to perform robotic heart surgery and established the country’s National Registry for Congenital Heart Diseases.

His long-term research on heart rate variability (HRV), cardiac coherence, and geomagnetic fields has positioned him at the intersection of cardiology, space physics, and chronobiology. He is a recipient of the Gold Medal of the World Organization for Scientific Cooperation (WOSCO), and has installed magnetometers in Saudi Arabia as part of the HeartMath Global Research Network.

Selected Publications & Collaborations

Prof. Alabdulgader’s work bridges cardiology, space physics, and consciousness studies:

• Long-Term Study of Heart Rate Variability Responses to Changes in the Solar and Geomagnetic Environment — Scientific Reports (Nature), 2018. DOI: 10.1038/s41598-018-20932-x
• Space and Human Consciousness: The Great Whisper — Natural Science, 2021. DOI: 10.4236/ns.2021.137020
• Human Heart Rhythm Sensitivity to Earth Local Magnetic Field Fluctuations — Journal of Vibroengineering, 2015.
• Higher Incidence of Congenital Aortic Valve Stenosis in Higher Magnetic Latitude Countries: New Insights and Potential Therapies — Archives of Clinical and Biomedical Research, 2025. DOI: 10.26502/acbr.50170447
• Heart-Based Resonant Field Theory of Consciousness — European Journal of Applied Sciences, 2025.
• Planetary Fields and the Human Heart: A GIMCI Editorial — GIMCI, 2017.

Prof. Alabdulgader has collaborated closely with the HeartMath Institute, a research organisation exploring heart rhythms, emotional regulation, and autonomic function, since 2008, when he joined Rollin McCraty to establish a long-term HRV study at the Prince Sultan Cardiac Center.

What You’ll Learn

• Why HRV may reflect your ability to adapt, recover, and stay regulated under stress.
• How Prof. Alabdulgader’s research links geomagnetic fluctuations to changes in heart rhythm patterns.
• What “heart coherence” means and how to move toward it.
• Why geographic differences in planetary magnetic field strength may be relevant to fetal cardiac development.
• The intellectual lineage of heliobiology — from Tchijevsky to Halberg to the current generation of researchers.

Summarised Transcript

Why the Heart? Early Influences

Tobias: What brought you to heliobiology as a clinical cardiologist?

Abdullah: When I was a child, I was reading about the human heart in the Holy Qur’an and other holy books. The heart is always equated to the mind, to human consciousness, never once mentioned as a pump. That question — what is the heart, really? — was my gate into heliobiology. I described a new congenital anomaly of the human heart in Canada, published in the Annals of Diagnostic Pathology, the first description of its kind in human history. That discovery opened the question of how to connect ancient knowledge to astrophysics. And from there I came to know Rollin McCraty, Franz Halberg, and the international colleagues we work with today.

Calgary: Long Hours and a Key Finding

Tobias: You mentioned observations in Canada. Can you tell me about that time?

Abdullah: I went to Calgary for postgraduate training in clinical electrophysiology. I extended my working hours there from 4 pm until midnight every day. In that time, I encountered a remarkable dataset on congenital heart anomalies. Among them was a native Canadian newborn cadaver that had been examined by many others before me, but I was able to recognise a combination of cardiac, respiratory, and gastrointestinal congenital conditions that filled a missing link in our understanding of human cardiogenesis. That finding became a powerful stimulus to ask bigger questions about the heart’s relationship to the environment.

Geography, Magnetic Field, and Congenital Heart Disease

Tobias: Your later work documented that certain congenital heart conditions appear more frequently in countries at higher latitudes. Can you explain what you found?

Abdullah: The overall incidence of congenital heart disease is roughly stable worldwide, about 1% of the population. But the subtypes differ. Valvular aortic stenosis is significantly more common in Canada, Scandinavia, northern Russia, and other high-latitude countries than in equatorial countries like Saudi Arabia or Nigeria. In equatorial regions, Earth’s magnetic field strength is around 25,000 nT. Near the North Pole, in Edmonton for example, it reaches approximately 65,000 nT. That is nearly three times stronger. I documented a very strong geographic trend: as latitude and magnetic field strength increase, so does the incidence of this specific valve defect. My proposal is that the planetary magnetic field is a contributing factor in the embryonic formation of the heart, a factor we have largely overlooked in cardiac research.

Tobias: Space-weather disturbances are also more dominant near the magnetic poles. Is it possible that geomagnetic storms could trigger clusters of these malformations?

Abdullah: That is my hypothesis. In clinical practice, I sometimes see unusual clusters — two weeks in which I see far more cases of a particular defect than usual. Heliobiology would suggest that periods of intense geomagnetic disturbance could be contributing. The first generation of heliobiology researchers, Alexander Tchijevsky, drew our attention to these connections. The second generation is Franz Halberg. I consider myself and Rollin McCraty the third.

Tchijevsky, Halberg, and the “Heart Century”

Abdullah: I give thanks for Alexander Tchijevsky, a true pioneer. In the Islamic golden age, Al-Razi and Ibn Sina spoke of human disease in relation to celestial conditions, but Tchijevsky did the systematic decoding. And Franz Halberg, the founder of chronobiology, is a name that should be remembered by all generations. If you read his research, you need to read it two or three times before you begin to understand. I believe his language will be the science of the next 200 years. The 20th century was the brain century. I believe the 21st must be called the heart century.

The HRV Study: Schumann Resonances, Solar Wind, and Cosmic Rays

Tobias: In your HRV studies, you found that the heart synchronises with Schumann resonances and solar environmental factors. What did the study involve?

Abdullah: Beginning in 2010, in collaboration with Rollin McCraty, we designed a long-term HRV measurement study at the Prince Sultan Cardiac Center. Participants wore HRV recorders 24 hours a day for weeks, sometimes months. We synchronised these recordings with three environmental signals: Schumann resonances (the electromagnetic standing waves between Earth’s surface and the ionosphere at approximately 250 km altitude); solar wind and solar radio flux; and cosmic rays. Our analysis found that the human heart rate orchestrates with these planetary and cosmic energetic fields. This became the basis of my heart-based resonant field theory.

Abdullah: For the audience: HRV is the beat-to-beat variation of the heart. When you look at an ECG, you see the R-waves. In a healthy heart, the intervals between these waves are not constant; they vary. That variation is the signal. We study four major frequency bands within it.

Storms, Desynchronisation, and Global Consciousness

Tobias: In one example from your study, HRV was clearly synchronised with Schumann resonances during a quiet period — then a geomagnetic storm occurred, and synchronisation was lost. After the storm passed, they came back into alignment.

Abdullah: Yes. And I believe what we are observing in those diagrams is part of a global consciousness process. The Global Consciousness Project, led originally by Roger Nelson and now by Rollin McCraty, proposes that human energetic fields and collective events are coupled in ways we are only beginning to map. When geomagnetic conditions are disturbed, that coupling is disrupted.

Tobias: Did you observe clinical effects during storm periods — changes in cardiovascular events?

Abdullah: In our data, geomagnetic disturbances correlate with increased incidence of myocardial ischaemia, presenting as infarction or angina, and with disturbances of heart rhythm, particularly atrial fibrillation. There are also associations with depression, and some historical data suggests behavioural effects in the broader population. These are correlations, and the mechanisms are not fully established, but the associations appear consistently in the research literature.

Tobias: Your Nature paper found that the physiological response is delayed by about 10 hours after an environmental event. I found a similar lag of 3–4 days in my own blood-parameter studies, though my data resolution was daily rather than minute-by-minute.

Abdullah: The delay makes physical sense. Light from the Sun takes 8 minutes. Solar wind and plasma take 2–3 days to travel 150 million kilometres to Earth. And then there are additional delays in how the body responds to altered field conditions. Our continuous recordings gave us the resolution to see those shorter delays. An interesting footnote: we began the long-term study with 16 male and 16 female volunteers. How many completed it? Zero males, 16 females.

Coherence and the Heart’s Field

Tobias: Your work also focuses on heart coherence. What is it?

Abdullah: Cardiac coherence is a concept developed at the HeartMath Institute. When we measure HRV during different emotional states, positive emotions — appreciation, happiness — produce a different pattern than negative ones like frustration or pain. In coherence, the HRV pattern becomes smooth and sine-wave-like. Disturb the person and the pattern becomes irregular.

Abdullah: The heart generates the largest electromagnetic field in the human body; its field is often cited as approximately 5,000 times stronger than the brain’s. Physicists show us: put pendulums of different sizes in a room, and after some time they synchronise with the largest. The heart, as the dominant electromagnetic source, guides other tissues via its field, in addition to neural and biochemical pathways. When the heart is in coherence, other systems tend to follow.

Practical Use and Closing

Tobias: Can people practically protect themselves during high-activity space-weather periods?

Abdullah: In our data, approximately 10–15% of the population shows clear physiological sensitivity to geomagnetic events. The degree depends on health status, self-regulation capacity, and individual sensitivity. I advocate for space-weather forecasting to be included in daily public weather reporting, not only for navigation and communications, but for biology. The practical approach is to optimise HRV during quiet periods, maintain good general health, adhere to any relevant medications, and build the resilience to increase tolerance when disturbances arrive.

Tobias: What would you say to someone wanting to improve their coherence?

Abdullah: Look at your HRV. Improve it through exercise, stress reduction, spiritual practice, and good sleep. HRV peaks around age 22 and declines, but it is trainable at any age. When HRV improves, many things improve with it.

Practical Steps: Working With HRV

Based on the approaches discussed in this conversation:

1. Establish a baseline. Track SDNN or RMSSD over several weeks before drawing conclusions. Day-to-day variation is high; trends matter more than single readings.
2. Cross-reference with environmental conditions. Note the Kp index and F10.7 alongside your HRV log to begin building a personal picture of sensitivity.
3. Prioritise the basics that move the needle most. Consistent sleep timing, moderate aerobic exercise, and stress reduction reliably improve HRV across the research literature.
4. Explore coherence practices. Slow, rhythmic breathing (around 5–6 breaths per minute) is the most consistently studied method for entering a coherent HRV state. The HeartMath app provides real-time coherence feedback via pulse oximetry.
5. Use quiet periods. If you identify personal sensitivity to geomagnetic activity, use low-Kp periods to consolidate recovery and optimise baseline.

The Heart Rate Variability article covers measurement methods, device options, and interpretation in detail.

Where the claims sit

HRV as a vital sign of autonomic function is well established in cardiology. The HRV–Schumann–solar-wind correlations Prof. Alabdulgader documents come primarily from one research lineage (Alabdulgader with HeartMath and collaborators) and have limited independent replication. The latitude–congenital-heart pattern, the storm-desynchronisation observation, and the heart-as-dominant-electromagnetic-field theory are working hypotheses, not consensus cardiology. The practical actions later in this piece — measure your HRV, sleep, breathe slowly, watch the Kp index if you are sensitive — stand on the settled half regardless of where the larger questions land.