Ricardo Ghelman
How Ricardo Ghelman Reveals the Embryo as a Symphony of Form
About the Book
Information Fields: Theory and Applications (Springer Nature, 2026) is a landmark publication that establishes a new frontier in science. Edited by Erico Azevedo and José Pissolato Filho, this volume brings together 17 chapters from leading researchers around the world to explore how information—not just matter and energy—may be a fundamental building block of reality. The book bridges quantum physics, biology, and psychology, offering a unified framework for understanding how information organizes the universe, from entangled particles to human consciousness.
[Link to book: https://link.springer.com/book/9789819517411]
About the Author: A Physician Who Sees the Whole
Ricardo Ghelman, MD, PhD, is a physician and researcher whose work bridges developmental biology, integrative medicine, and the emerging science of morphogenetic fields. Affiliated with the Brazilian Academic Consortium for Integrative Health (CABSIN) , Ghelman brings a unique perspective to the study of life’s formation—one that honors both the precision of modern embryology and the wisdom of ancient traditions.
His background in medicine gives him clinical grounding; his doctoral training provides scientific rigor; and his engagement with integrative health opens him to questions that conventional biology often avoids. What guides the embryo’s astonishing self-assembly? How does a single cell “know” to become a complex organism? And what happens when this guidance system fails—in birth defects, in cancer, in the loss of form? Ghelman’s chapter is a sweeping synthesis: part history of science, part cutting-edge biology, part philosophical reflection. It traces the evolution of embryological thought from Aristotle to the latest research on bioelectric fields, revealing a unifying thread: morphogenetic fields as the hidden architects of life.
About the Institutions: CABSIN
The Brazilian Academic Consortium for Integrative Health (CABSIN) is a network of researchers, clinicians, and educators dedicated to advancing integrative and complementary medicine through rigorous science. CABSIN bridges conventional and traditional medical systems, fostering dialogue between disciplines and paradigms—an ideal home for Ghelman’s interdisciplinary vision.
The Central Idea: Form Is Not Just Genetic—It’s Field-Guided
For much of the 20th century, biology operated on a core assumption: genes determine form. The DNA in each cell nucleus contains the blueprint for the entire organism. Development is simply the execution of that genetic program.
But this assumption has always had problems. How do cells with identical DNA become hundreds of distinct types—neurons, muscle cells, skin cells—in precisely the right places? Why does an adult cell nucleus, placed into an egg, produce not more of the same cell but an entire organism? How does the embryo “know” to form fingers by sculpting away the tissue between them?
Ghelman’s chapter argues that we need a broader framework: morphogenetic fields. These are dynamic, information-rich systems that store spatial and temporal memory, guiding cellular behavior with a precision that genes alone cannot explain. They are not mystical—they are biophysical, operating through bioelectric gradients, mechanical forces, and quantum-coherent information transfer. As Ghelman writes:
Long-range instructive signals operate to provide positional information and precisely coordinate cellular migration pathways in both temporal and spatial dimensions. The phenomenon of complex morphogenesis has been increasingly conceptualized as extending beyond mere local cellular interactions, instead being guided by a physically encoded blueprint or template of the final morphological state.
The Historical Journey: From Preformationism to Epigenesis
Ghelman opens with a fascinating historical overview, tracing humanity’s attempts to understand how life takes form:
Aristotle (384–322 BC): The first embryologist. Observing chicken eggs with the naked eye, he documented the entire 21-day metamorphosis and proposed epigenesis—the idea that the organism develops from an undifferentiated structure. “It is through the act of wonder, of marveling at phenomena, that people begin to philosophize,” he wrote.
17th Century Preformationism: With the microscope came a strange idea—that miniature humanoids were encapsulated infinitely within one another, either in sperm (animalculism) or egg (ovism). In 1694, Dr. Nicolaas Hartsoeker published an image of a homunculus curled in a sperm’s head, reinforcing this view for nearly a century.
18th Century Synthesis: Preformationism explained generational continuity well, but couldn’t account for regeneration, variation, or abnormalities. Kaspar Friedrich Wolff revived epigenesis, proposing a vis essentialis—an organizing vital force guiding development. Philosophers like Kant and biologists like Blumenbach synthesized the two views: epigenetic development guided by preformed instructions, a synthesis that persists today.
21st Century Morphogenetic Fields: Rupert Sheldrake’s modern concept of morphogenetic fields finds fertile ground in embryology, as experiments demonstrate that cell differentiation is epigenetically controlled by the extracellular matrix.
The Mechanisms: How Fields Guide Form
In his chapter, Ghelman identifies several key mechanisms through which morphogenetic fields operate::
Heterochrony: Temporal Control of Space
Heterochrony refers to changes in the timing or rate of developmental events. Different parts of an organism may grow for different periods at different rates, producing distinct morphologies. The rate of apoptosis (programmed cell death) can also vary—in finger formation, if interdigital apoptosis is prolonged, longer digits develop.
As Ghelman explains:
Small changes in the rate or duration of growth or apoptosis in different body parts during ontogeny can significantly impact the final adult morphology.
Somitic Clocks: Rhythmic Segmentation
Somites are transient structures in vertebrate embryos that represent the first morphological sign of segmentation. They form in a precise rostral-caudal sequence, regulated by a “clock and wavefront” mechanism—a biological oscillator that creates rhythmic patterns.
Cytoplasmic Determinants and Extracellular Cues
Three well-established mechanisms participate in morphogenetic ordering:
- Cytoplasmic determinants (e.g., Sonic Hedgehog protein, essential for establishing body axes)
- Hormonal regulation (e.g., thyroid hormone guiding neural development)
- Differential cellular affinity (adhesion molecules, gap junctions, extracellular matrix)
The Radical Proof: The Dolly Experiment
To grasp the power of extracellular orchestration, consider Ian Wilmut’s 1997 cloning of Dolly the Sheep. When an adult ear cell nucleus was transferred into an enucleated oocyte, it did not produce more ear cartilage cells—but an entire cloned sheep.
As Ghelman emphasizes:
This revolutionary finding proved that cytoplasmic and extracellular matrix signals hold decisive control over cellular fate, reshaping embryology and igniting the field of regenerative medicine.
Bioelectricity: The Hidden Language of Form
One of the most exciting frontiers in developmental biology is bioelectric signaling. Researchers have discovered that cells communicate through electrical gradients—ionic fluxes that carry information like bits in a circuit.
Ghelman describes remarkable experiments:
- Induction of tails in tadpoles through bioelectric manipulation
- Reprogramming of regeneration in planarians
- Reversal of body asymmetry in embryos
This bioelectric information has been compared to that stored in electronic circuits, where ionic fluxes act as bits encoded in cellular membrane potentials—not just in neurons, but in cells throughout the organism.
Striking parallels with neural networks reveal profound similarities between cognitive memory and morphogenetic memory. The embryo appears to use a morphological memory system—where bioelectric patterns guide form with the same sophisticated logic that neural patterns guide thought. As Ghelman reflects:
Just as neurons encode experience through electrical patterns, somatic cells may encode morphological information through bioelectric states. This perspective bridges the gap between form and information, revealing morphogenesis as a kind of embodied computation where tissues remember, decide, and evolve through dynamic bioelectric circuits.
The Embryo’s Journey: A 40-Week Odyssey
One of the most captivating aspects of Ghelman’s chapter is his treatment of embryonic development—not as a dry biological sequence, but as a living epic. He invites us to witness something astonishing: a single cell, smaller than a grain of sand, transforming into a complex human being in just 40 weeks.
The power of this section is not the enumeration of stages—though those are present—but the poetic vision that animates them. Ghelman shows us that the embryo is not following a mechanical program. It is remembering. Each stage of development echoes millions of years of evolution, from our aquatic ancestors to the first land vertebrates to the primates who learned to stand upright.
Consider the fourth week, when the heart begins to beat—the first functional organ—while still under construction. How does a structure that is not yet finished know how to pump? How does it know to migrate from the neck to the chest, rotating 180 degrees, then 270, passing through forms that resemble fish hearts, then reptilian hearts, then mammalian hearts? Ghelman’s answer: morphogenetic fields are guiding it, carrying the memory of every heart that has ever beaten.
Perhaps most striking is Ghelman’s observation that the four temporary organs formed in the second week—the yolk sac, amniotic sac, allantois, and chorion—correspond to the four classical elements: earth, water, air, and fire. The yolk sac provides earthly nourishment. The amniotic sac immerses the embryo in protective waters. The allantois manages gaseous exchange. The chorion generates vital heat. Ancient wisdom and modern embryology, speaking the same language.
Ghelman is not claiming that the ancients knew embryology. He is showing that the same archetypal patterns appear across scales and traditions—that the human body is a living archive of planetary and cosmic history. The embryo does not merely grow; it remembers. Its development is a condensed epic, a cinematic replay of millions of years of evolution.
This perspective transforms how we see ourselves. We are not random collections of cells. We are symphonies of form, guided by fields that carry the memory of all who came before.
The Fetus: A High-Altitude Dweller
Ghelman offers a striking analogy: the fetus exists in a state of chronic hypoxia, like a mountaineer at high altitude. Umbilical blood carries far less oxygen than maternal blood—yet the fetus is not disadvantaged. It is adapted, with specialized hemoglobin and circulatory shunts that prioritize brain and heart.
“Gestation mirrors an ascent,” Ghelman writes, “and birth becomes the descent into an oxygen-rich world.“
At birth, oxygen surges. The shunts close. The newborn, once a high-altitude dweller, descends into the valley of light. What begins as an ascent ends as a homecoming.
Postnatal Development: Recapitulating Evolution
Ghelman invites us to see the first year of life as something extraordinary: a cinematic replay of millions of years of evolution.
In the first months, the newborn moves like a fish—undulating, fluid. By three months, head control emerges, like an amphibian mastering land. At seven months, homolateral crawling—reptilian. At eight months, contralateral crawling—mammalian. By eleven months, the child squats like a primate. At twelve months, stands upright like Homo erectus. In the following years, tool use and language emerge—Homo habilis, then Homo sapiens.
“In these 1,100 golden days,” Ghelman writes, “the child lives a condensed epic.“
The body remembers what the mind cannot. Before we learn to speak, our muscles have already rehearsed the entire arc of human evolution. We do not merely grow—we recapitulate. Each milestone is a whisper of our ancestral past, a living fossil embedded in movement.
Cancer: When Fields Forget
The chapter concludes with a profound reflection on cancer. What happens when morphogenetic fields falter?
Cancer, Ghelman argues, is not just genetic mutation—it’s developmental amnesia. Cells forget their place in the body’s geography, reverting to embryonic anarchy. They:
- Lose positional memory, dedifferentiating
- Re-express embryonic proteins (CEA, alpha-fetoprotein)
- Activate pathological angiogenesis (mirroring placental vascularization)
- Suppress immune response (like the trophoblast)
Tumors are not mutations run amok but developmental amnesia—a reversion to embryonic anarchy where mitosis drowns out apoptosis’s whispers.
This raises urgent questions: How do these ordering fields falter in malignancy? And why does this derangement increasingly define our modernity?
Why This Chapter Matters
Ghelman’s contribution is significant for several reasons:
1. It bridges paradigms. From Aristotle’s epigenesis to Sheldrake’s morphic fields, from molecular biology to bioelectricity, Ghelman weaves a coherent narrative that honors multiple ways of knowing.
2. It grounds theory in evidence. The Dolly experiment, somitic clocks, bioelectric gradients—these are not speculation but established science, reinterpreted through the lens of field theory.
3. It connects development to disease. Cancer is not an external invader but a failure of internal organization—a derangement of the same fields that sculpted us in the womb.
4. It links to theory. Morphogenetic fields may be biological manifestations of the fundamental information fields Azevedo and Pissolato describe. Bioelectric gradients, cytoplasmic determinants, and extracellular cues could be how expresses itself in living systems.
5. It invites wonder. The embryo’s self-assembly—”breathing without lungs, digesting without intestines”—is a miracle we take for granted. Ghelman restores our sense of awe.
Connections to Other Chapters
Ghelman’s work resonates deeply with other contributions:
- Chapter 4 (Bandyopadhyay et al.): Fractal hyperspace and microtubule quantum coherence—the physical architecture for morphogenetic field reception.
- Chapter 5 (Schveitzer & Bazzo): Long-distance cellular communication—biophotons and EMFs as mechanisms for field signaling.
- Chapter 6 (Korotkov): Biofields and bioenergy—GDV imaging as a window onto the fields that guide form.
- Chapter 8 (Myakishev-Rempel et al.): DNA-water imprinting—possible mechanisms for morphogenetic memory.
- Chapter 9 (Sheldrake): Morphic resonance—morphogenetic fields as carriers of collective memory across time.
- Chapter 10 (Meneghetti): Semantic fields—unconscious information transmission, potentially analogous to cellular field communication.
Key Takeaways
- Form is field-guided, not just genetic. Morphogenetic fields store spatial and temporal information that orchestrates development.
- The Dolly experiment proved it. Cytoplasmic and extracellular cues, not nuclear DNA, determine cellular fate.
- Bioelectricity is the hidden language. Ionic fluxes encode positional information like bits in a circuit—somatic cells “remember” through electrical patterns.
- Heterochrony sculpts form. Changes in developmental timing produce morphological variation across evolution.
- The embryo recapitulates evolution. From fish to reptile to mammal, our development echoes planetary history.
- Birth is a descent from altitude. The fetus lives in chronic hypoxia, adapting like a high-altitude dweller.
- Cancer is developmental amnesia. Malignancy arises when morphogenetic fields falter—cells forget their place.
- Morphogenetic fields connect to . The same informational principles that entangle particles may guide the formation of life.
About the Author’s Contributions
Ricardo Ghelman brings together medicine, developmental biology, and integrative health in a synthesis that is both scientifically rigorous and philosophically profound. His chapter honors the complexity of life’s formation while opening new questions about the fields that guide it.
For Further Exploration
- Brazilian Academic Consortium for Integrative Health (CABSIN): https://www.cabsin.org.br
- Key researchers: Rupert Sheldrake (morphic fields), Michael Levin (bioelectricity), Scott Gilbert (developmental biology)
- Key concepts: Heterochrony, somitic clock, primitive streak, notochord, apoptosis, morphogenetic fields
Explore other Information Fields book chapters
Part I: The Physical Realm
Chapter 1: Information Fields as a Fundamental Physical Primitive
Erico Azevedo & José Pissolato Filho
Chapter 2: The Persistence of Information in a Quantum Reality
Shantena Sabbadini
Chapter 3: Unveiling Quantum Entanglement
Erico Azevedo & José Pissolato Filho
Chapter 4: Fractal Hyperspace Engineering
Anirban Bandyopadhyay, Sudeshna Pramanik & Pushpendra Singh
Part II: The Biophysical Realm
Chapter 5: Long-Distance Cellular Communication: A Review
Mariana Cabral Schveitzer & Maria Luiza Bazzo
Chapter 6: Biofields and Bioenergy
Konstantin Korotkov
Chapter 7: Developmental Biology and Morphogenetic Fields
Ricardo Ghelman
Chapter 8: Imperfection as the Foundation of Life
Ivan V. Savelev, Michael M. Rempel, Oksana Polesskaya, Richard Alan Miller & Max Myakishev-Rempel
Part III: The Biopsychical Realm
Chapter 9: Morphic Resonance and Beyond
Rupert Sheldrake
Chapter 10: Semantic Fields,
Antonio Meneghetti
Chapter 11: Nonlocal Experiences in a Quantum Reality
Dean Radin, Helané Wahbeh, Garret Yount, Thomas Brophy, Sitara Taddeo & Arnaud Delorme
Chapter 12: Nonlocal Human Communication: A Unified Framework via the Field
Erico Azevedo
Chapter 13: Exploring the Dimensions of Consciousness
Tommy Akira Goto
Part IV: Applications
Chapter 14: Information Fields in Psychology
Erico Azevedo & Nathália Perin
Chapter 15: Medical Systems and Integrative Health
Ricardo Ghelman, Caio S. Portella & José Ruguê Ribeiro Junior
Chapter 16: Intuition and Noise in Decision Making
Erico Azevedo
Chapter 17: From Metaphysics to Science
Alécio Vidor
About ORIONT
ORIONT is an institute dedicated to research, training, and practical applications of Ontopsychology and human potential development. Co-founded by Erico Azevedo and Nathália Perin, it serves as a bridge between rigorous scientific investigation and the lived experience of human development. Through research, publications, and training programs, ORIONT carries forward the vision of a science that includes the full depth of human experience. [Website: https://oriont.org]
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