Skip to main content

Human Children. Retelling of Chapter 3


Short retelling of chapter 3 of the essay: Arkhipov S.V. Human Children: The Origins of Biblical Legends from a Physician's Perspective. Joensuu: Author's Edition, 2025. [In Russian] 

Chapter 3. THE DAWN OF SURGERY

The animal kingdom exhibits numerous forms of social support, many of which lay the groundwork for rudimentary medical practices. Insects like bees, fish such as cichlids, amphibians like bullfrogs, reptiles like crocodiles, and most birds and mammals demonstrate care for their offspring. Lions and wolves feed injured kin, while buffalo and flocking birds collectively defend against predators. Marine mammals assist struggling companions to the surface for air, and elephants help free trapped herd members from mud or aid them in standing. These behaviors hint at the origins of altruism, a trait that extends to early medical instincts.

Animals also engage in self-medication and basic healing. Birds employ various techniques to combat ectoparasites, while moths, ants, and fruit flies consume natural remedies for ailments. Chimpanzees incorporate medicinal plants into their diets, using them passively as healing foods or actively to treat injuries and infections. Dogs instinctively immobilize fractured limbs, lick wounds to clean them, and seek anti-parasitic plants when infested with worms. Grooming among related animals or mutual parasite removal across species serves as a form of treatment. A striking example involves a male Sumatran orangutan who applied sap and a paste made from Fibraurea tinctoria leaves to a facial wound, protecting it from insects while the lysozyme in his saliva and the plant’s compounds prevented infection and promoted healing. Chimpanzee communities lick each other’s wounds and place insects into injuries, possibly for therapeutic purposes. Capuchin monkeys rub odorous substances on one another, likely as a mutual anti-parasitic treatment. Ants clean and disinfect wounds with antimicrobial saliva, immobilize partially severed limbs, and even amputate damaged legs to reduce infection risks, a behavior that mirrors human altruism despite being driven by the need to remove dead tissue.

Humanity’s need for healthcare dates back to prehistory, with urgent surgery emerging as a critical skill. Early humans faced injuries from extreme temperatures, rugged terrain, falls from trees or cliffs, rockslides, predator attacks, and conflicts with rival groups. Burns, frostbite, cuts, muscle tears, fractures, and dislocations were common, yet not always fatal. Non-vital organs like eyes, ears, or extremities were frequently affected, prompting attempts at self-diagnosis and self-treatment for minor issues such as bruises, abrasions, small wounds, foreign bodies, sprains, ligament tears, subluxations, and hairline fractures. These efforts mark the roots of surgical specialties, including traumatology, burn care, ophthalmology, vascular surgery, maxillofacial surgery, abdominal surgery, thoracic surgery, neurosurgery, and otolaryngology.

The earliest recorded lethal injury among human ancestors is that of “Lucy,” a female Australopithecus afarensis who lived in Ethiopia around 3.2 million years ago. Her remains reveal death from multiple fractures, internal ruptures, and hemorrhages caused by a fall, likely from a tree. Such injuries were not uncommon among early hominins, whether fruit-gatherers or mountain-dwellers. For instance, two Australopithecus sediba individuals suffered fatal trauma after falling into a 5–10-meter-deep cave in South Africa’s Malapa site about 2 million years ago. Falls from heights exceeding 6.61 meters often cause severe head, chest, or abdominal injuries, offering little chance of survival for these early hominins.

Many injuries, however, were survivable, with some healing spontaneously. A healed heel bone fracture in an Australopithecus africanus, found in South Africa’s Sterkfontein Caves (dated 2.8–2.01 million years ago), suggests prolonged care by group members. The individual required immobilization for months, likely supported by a makeshift splint crafted from bark, vines, and sticks, and relied on others for food and mobility. This case highlights early social support and basic medical intervention, akin to modern orthopedic immobilization, though without advanced tools like plaster casts or surgical fixation.

Another example comes from Java, where a Homo erectus femur, dated 540,000–430,000 years ago, shows a massive ossification at the attachment site of the adductor brevis muscle. This likely resulted from a hematoma or chronic microtears, causing pain and limited mobility. The individual, unable to hunt or climb effectively, probably depended on group support and sought natural pain relief, as evidenced by the years-long growth of the osteophyte.

Homo heidelbergensis fossils also indicate care for the injured. A teenager from Italy’s Venosa-Notarchirico site (661,000–614,000 years ago) survived chronic femoral inflammation for over four months, implying community aid. In Spain’s Sima de los Huesos (530,000 years ago), a child’s skull with craniosynostosis and an elderly individual’s deformed pelvis and spine suggest they were cared for despite severe disabilities, as their conditions limited hunting or mobility.

Neanderthals (Homo neanderthalensis), thriving 500,000–30,000 years ago, exhibited profound care for vulnerable group members, including children with severe pathologies. Their medicine was sophisticated, reducing mortality and enhancing adaptability, which supported their dispersal and evolution. Most Neanderthals sustained serious injuries, with 79–94% of populations affected, 37–52% experiencing severe trauma, and 13–19% disabled before adulthood. At Iraq’s Shanidar Cave (55,000–45,000 years ago), fossils reveal extensive care. Shanidar 1, a male, survived multiple fractures, orbital damage, and a partial arm amputation—possibly intentional—for over a decade, reaching old age with debilitating conditions. Shanidar 3’s rib shows a wound from a thrown weapon, while Shanidar 4 and 5 healed from rib and cranial injuries, respectively.

A young Neanderthal from France’s La Roche à Pierrot (36,000 years ago) recovered from skull fractures without infection, despite likely brain trauma and symptoms like pain, nausea, and disorientation requiring weeks of care. This suggests Neanderthals developed surgical skills, at least for treating skin and bone injuries. Dental tartar analysis from Spain’s El Sidrón cave reveals Neanderthals consumed medicinal plants like yarrow and chamomile, as well as penicillin-producing fungi and poplar, which contains salicylic acid, a natural pain reliever. These plants offered anti-inflammatory, antiseptic, and sedative effects, likely used to treat wounds and reduce infections.

Neanderthals gained anatomical knowledge by butchering hunted animals, applying insights to human bodies. At Shanidar, an amputation may have been performed to remove a non-viable arm, possibly crushed by falling rock. The procedure likely involved cutting through dead tissue below a fracture to minimize pain and blood loss, using stone or bone tools and possibly plant-based analgesics. Post-operative care included cleaning the wound, applying raw meat or moss dressings, and using honey or herbs for healing, sustaining the patient for weeks.

Neanderthal medicine, possibly pioneered by a skilled individual at Shanidar, reflects advanced social and intellectual capacities. Their care for the injured, like Shanidar 1, who lived to 35–50 despite disabilities, underscores their humanism. Compared to early Homo sapiens, who averaged 30–39 years, Neanderthals’ medical practices extended lifespans, preserving valuable knowledge.

The earliest confirmed surgery on modern humans—an amputation of a man’s lower leg—occurred 31,000–30,000 years ago on Borneo’s Liang Tebo site. Other evidence includes trepanned skulls from Morocco (13,000–11,000 years ago), Iraq (8,920 years ago), and Ukraine (8,020–4,783 years ago), as well as dental drilling in Pakistan (9,000–7,500 years ago) and Italy (14,160–13,820 years ago). Amputations and mastoidectomies appear in Europe by 5,500–4,500 years ago, often with signs of healing, indicating surgical proficiency.

Surgery arose from anatomical knowledge gained through palpation, wound inspection, and rituals like cannibalism and mummification. In Spain’s Gran Dolina (780,000 years ago), Homo antecessor remains suggest marrow extraction, while cannibalism persisted in Europe (23,500–13,500 years ago) and China (8,000–4,500 years ago). Chile’s Chinchorro culture (8,475–1,720 years ago) mastered mummification, revealing detailed anatomical understanding, though its application to medicine is unclear.

Mesopotamian medicine, emerging in Sumer by 4,000 BCE, evolved through Akkad, Babylon, and Assyria. Military doctors likely served in garrisons, and hospitals existed by 2,000 BCE. Sumerian medicine, initially empirical, grew mystical by 1,700 BCE. The physician Lulu practiced in Ur around 2,700 BCE, and surgical tools like bronze knives were used by 2,500 BCE. Procedures included wound cleaning, cauterization, and abscess drainage, but Hammurabi’s Code (circa 1,760 BCE) imposed harsh penalties for surgical errors, stifling progress.

Egyptian medicine, dating to 3,300 BCE, blended science with religion. By 2,750 BCE, surgical procedures like bone setting and circumcision were depicted, with metastases treated by 2,400 BCE. Operations peaked in the Old Kingdom (2,613–2,181 BCE) but declined later due to religious taboos against dissection. Mummification provided anatomical insights, yet these were underutilized. Notable figures like Hesy Re, a dentist under Djoser (2,630–2,611 BCE), highlight Egypt’s specialized medical roles.

In the Levant, Israelite medicine lagged, dominated by priests who prioritized ritual over science. Surgeons performed circumcisions and basic procedures, but prohibitions on dissection limited advancements until the Hellenistic period. 

Retelling done by Grok, an artificial intelligence developed by xAI.

 

TABLE OF CONTENTS


                                                                    

Author:

Arkhipov S.V. – candidate of medical sciences, surgeon, traumatologist-orthopedist. 

Citation:

Архипов С.В. Дети человеческие: истоки библейских преданий в обозрении врача. Эссе, снабженное ссылками на интерактивный материал. 2-е изд. перераб. и доп. Йоэнсуу: Издание Автора, 2025. 

Arkhipov S.V. Human Children: The Origins of Biblical Legends from a Physician's Perspective. An essay with references to interactive materials. 2nd revised and expanded edition. Joensuu: Author's Edition, 2025. [Rus]

Purchase:

PDF version is available on GooglePlay & Google Books

Keywords

ligamentum capitis femoris, ligamentum teres, ligament of head of femur, history, first patient, injury, damage, Bible, Genesis

BLOG CONTENT

ANCIENT MENTIONS


Comments

Popular posts from this blog

Set of Classifications

  General Classification of LCF Pathology Version : 20240420 Annotation Analysis of literature data and our own morphological observations allowed us to propose a General Classification of LCF Pathology. Introduction In Russia, the initial attempts to classify pathology of the ligamentum capitis femoris (LCF) were made by morphologists. L.I. Gaevskaya distinguished three types of LCF: 1) long and thick (length 41–51 mm, thickness 5 mm), 2) short and thin (length 10–20 mm, thickness 1 mm), 3) long and of small thickness (length 43–45 mm, with a thickness of 3 mm, and length 28–30 mm with a thickness of 4–5 mm) (1954 ГаевскаяЛИ ). V.V. Kovanov, A.A. Travin identified three varieties of histological structure of LCF: 1) with a predominance of loose connective tissue; 2) with a predominance of dense connective tissue; 3) with a uniform distribution of loose and dense connective tissue ( 1963 КовановВВ _ ТравинАА ). The development of arthroscopic surgery has made it possible to i...

Topography of the Acetabular Canal

   Version : 20250728 Topography of the Acetabular Canal Side Femoral (lateral) Pelvic (medial)   Contents Synovial fluid Ligamentum capitis femoris (LCF) White adipose tissue Loose connective tissue Synovial membrane Transverse acetabular ligament Arteries Veins Nerves Lymphatic vessels   Sections Peripheral section Central section Subsynovial section Suprasynovial section   Peripheral Section Entrance foramen -- Upper edge -- Lower edge -- Anterior edge -- Posterior edge External segment (subligamentous) - Superior wall - Inferior wall - Posterior wall - Anterior wall Internal segment (extraligamentous) - Subsynovial part (tier) -- Superior wall -- Inferior wall -- Posterior wall -- Anterior wall - Suprasinovial part (tier) -- Superior wall -- Inferior wall -- Posterior wall -- Anterior wall   Central Section Iliac recess Ischial recess Subsynovial part (tier) - Outer margin - Medial wall - Lateral wall - Anteroinferior wall - Posteroinferior wall - Supra...

LCF in 2025 (July)

    LCF in 2025 ( July )   (Quotes from articles and books published in July 2025 mentioning the ligamentum capitis femoris.) Tekcan, D., Bilgin, G., & Güven, Ş. Evaluation of Risk Factors for Developmental Dysplasia of the Hip. HAYDARPAŞA NUMUNE MEDICAL JOURNAL , 65 (2), 99-103.   [i]   jag.journalagent.com   Domb, B. G., & Sabetian, P. W. (2025). Greater Trochanteric Pain Syndrome: Gluteal Tendinopathy, Partial Tear, Complete Tear, Iliotibial Band Syndrome, and Bursitis. In Orthopaedic Sports Medicine (pp. 1-17). Springer, Cham.   [ii]   link.springer.com   Kuhns, B. D., Becker, N., Patel, D., Shah, P. P., & Domb, B. G. (2025). Significant Heterogeneity in Existing Literature Limits Both Indication and Outcome Comparability Between Studies Involving Periacetabular Osteotomy For Acetabular Dysplasia With or Without Arthroscopy Despite Improvement for Both: A Systematic Review. Arthroscopy .   [iii]   ...

BLOG CONTENT

  T he ligament of the head of femur or ligamentum capitis femoris (LCF) is the key to a graceful gait and understanding the causes of hip joint diseases. We present promising scientific knowledge necessary for preserving health,  to create new implants and techniques  of treating degenerative  pathology and damage of the hip joint. Project objective : preserving a normal gait and quality of life, helping to study of hip joint biomechanics, developing effective treatments for its diseases and injuries. In translating to English, the author is assisted by ChatGPT (version 3.5)  and the Google Translate service .  We're sorry for any flaws in the syntax. The meaning makes up for the imperfections!     TABLES OF CONTENTS    Acetabular Canal   (Anatomy, topography and significance of the functioning area of ​​the ligamentum capitis femoris) Acetabular Canal.  Part 1.   This article describes the space where the ligam...

Online Journal «ABOUT ROUND LIGAMENT OF FEMUR», June 2025

  The journal is dedicated to the ligamentum capitis femoris (LCF) and related topics   About the Journal   »»»                                                                                . The online journal  « About Round Ligament of  Femur »   was created based on the scientific blog of the same name. The resource is the English-language part of the project:  ONLINE JOURNAL:  Ligamentum capitis femoris .   Updates:  As new materials are prepared. Mission :   Popularization and preservation of knowledge about LCF, as well as promoting its practical application. Main goal:  Improvement of diagnosis, treatment, and prevention of injuries and diseases of the hip joint. Publisher:  Arkhipov S.V., independent researc...

1864MacalisterA

  Content [i]   Annotaction [ii]   Original in  English [iii]   Translated into  German [iv]   Illustrations [v]   Source  &  links [vi]   Notes [vii]   Authors & Affiliations [viii]   Keywords [i]   Annotaction Fragment of the article: Macalister A. On the anatomy of the ostrich (Struthio camelus) (1864). The author observed ligamentum capitis femoris (LCF) in an ostrich. Its strength is noted, and its shape is described. Translation into Russian is available at the link: 1864MacalisterA .  [ii]   Original in  English   Quote, p. 22 The articulations of the lower extremity present many points of mechanical importance. The first, or the hip, is an enarthrosis, surrounded by a capsule, loose, expanding inferiorly; the synovial membrane spreads over the great trochanter; a strong transverse band passes from the border of the lesser sciatic notch to the upper and posterior edge of the acetab...

1835CooperAP

  Fragments of the book Cooper AP. Lectures on the Principles and Practice of Surgery (1835) dedicated to ligamentum capitis femoris (LCF). The author discusses LCF injury during hip dislocation and notes the important role of its blood vessels in supplying the femoral head.   Quote p. 577 DISLOCATIONS OF THE HIP JOINT … It generally happens when the thighs are widely separated from each other, that the ligamentum teres and capsular ligament are torn through, and the head of the bone is situated on the obturator externus muscle at the inner and back part of the thigh. Quote pp. 584-585 ON DISLOCATIONS OF THE THIGH BONE … But the third and principal reason is, the almost entire absence of ossific union in the head of the bone when detached from its cervix. The principal supply of blood to the head of the bone being derived from the ligamentum teres, which has only a few minute vessels ramifying from it on the bone, the natural supply of blood for the neck and head ...

Online Journal «ABOUT ROUND LIGAMENT OF FEMUR», May 2025

  The journal is dedicated to the ligamentum capitis femoris (LCF) and related topics   About the Journal   »»»                                                                                . The online journal  « About Round Ligament of  Femur »   was created based on the scientific blog of the same name. The resource is the English-language part of the project:  ONLINE JOURNAL:  Ligamentum capitis femoris .   Updates:  As new materials are prepared. Mission :  Popularization and preservation of knowledge about LCF, as well as promoting its practical application. Main goal:  Improvement of diagnosis, treatment, and prevention of injuries and diseases of the hip joint. Publisher:  Arkhipov S.V., independent research...

OLDEST SYNONYMS

  There are more than 100 terms for ligamentum capitis femoris. The oldest synonyms:   Sumer (ca. 5500 – ca. 2004 BCE): [sa] [Eng] 911-612bcK2453 https://roundligament.blogspot.com/2024/09/911-612bck2453.html For more details, see the comment from: [Rus] 911-612bcK2453 https://kruglayasvyazka.blogspot.com/2024/09/911-612bck2453.html   Ancient Egypt (ca. 3150 BC – 332 BCE): [mt /met] [Eng] 1650-1550bcImhotep the Younger https://roundligament.blogspot.com/2024/09/1650-1550bcimhotep-younger.html For more details, see the comment from: [Rus] 1650-1550bcImhotep the Younger   https://kruglayasvyazka.blogspot.com/2024/09/1650-1550bcimhotep-younger.html   Akkadian Empire (ca. 2334 – 2154 BCE): [nimsu]   [Eng] 2000-1600bcBM29663 https://roundligament.blogspot.com/2024/09/2000-1600bcbm29663.html For more details, see the comment from: [Rus] 2000-1600bcBM29663 https://kruglayasvyazka.blogspot.com/2024/09/2000-1600bcbm29663.html   Ancient Israel and Judah (ca...

Online Journal «ABOUT ROUND LIGAMENT OF FEMUR», February 2025

    SCIENTIFIC THEMATIC ONLINE JOURNAL « About Round Ligament of Femur » February, 2025 The publication is dedicated to the ligamentum capitis femoris (LCF) and related topics.   About the Journal The online journal  « About Round Ligament of  Femur »   was created based on the scientific blog of the same name. Updates: As new materials are prepared.  Purpose:  Popularization and preservation of knowledge about LCF, as well as promoting its practical application. Main goal: Improvement of diagnosis, treatment, and prevention of injuries and diseases of the hip joint.   Announcements 25.02.2025 A Facebook group « LIGAMENTUM CAPITIS FEMORIS »  has been created.  26.02.2025 The scientific blog « About Round Ligament of Femur » has been transformed into an online journal of the same name.   Surgical Treatment ...