Scars of the Past: Radiological Reflections on Lobotomies
Dr. Walter Freeman and Dr. James Watts study an X-ray in 1941 before a psychosurgical operation. Photo / Supplied / NZ Herald

Scars of the Past: Radiological Reflections on Lobotomies

Medical history often holds chapters that are both chilling and controversial, none more so than the era of lobotomies. At one time these procedures were seen as a breakthrough treatment for severe mental illnesses. These procedures involved accessing the brain through the eye socket with an ice pick, often leaving patients drastically changed or in vegetative states. Unfortunately, lobotomies were practiced until the 1970s, which means we are still seeing the effects of them in modern medicine. ?Still to this day radiologists can see the effects of these horrible practices through imaging procedures.

?Journey Through Time

The story of the lobotomy begins in 1935 when Antonio Moniz embarked on, what was thought at the time, a groundbreaking path, drilling into patients' skulls to perform what he termed a "leucotomy." This method aimed to treat severe mental disorders like depression and schizophrenia. He used crude tools with little grasp of neurological repercussions.

Fast forward to 1940s America, where Dr. Walter Freeman, captivated by Moniz's techniques, adapted and popularized the procedure into the infamous "ice-pick lobotomy." Together with Dr. James Watts, Freeman traded in Moniz’s drills in favor of an ice pick, which he thrust through the eye socket directly into the brain. This "transorbital lobotomy" was celebrated for how quickly it could be performed, only taking 10-minutes to complete.

A Terrifying Timeline

1935: Portuguese neurologist António Egas Moniz pioneers the lobotomy, drilling into skulls and injecting alcohol to destroy brain tissue, calling ?it a leucotomy.

1936: American psychiatrist Walter Freeman, along with neurosurgeon James Watts, adopts Moniz's approach, performing the first U.S. lobotomy via skull holes.

1946: Freeman refines the method with the transorbital lobotomy, using an ice pick through the eye socket, earning it the moniker "ice-pick lobotomy."

1949: Despite mounting evidence of harm, António Egas Moniz receives the Nobel Prize in Physiology or Medicine for his lobotomy work.

1950s: Lobotomies gain popularity, Freeman even touring with his "lobotomobile."

1960s: Antipsychotic medications begin replacing lobotomies due to ethical and medical concerns.

1970s: Several nations ban lobotomies for their cruelty and questionable ethics.

1975: Walter Freeman conducts his final lobotomy, marking the end of an era for the controversial procedure.

By the 1970s, the tide turned against lobotomies. The invention of antipsychotics offered less invasive and more effective treatments, prompting global bans on the procedure for its inhumane and irreversible effects.

Patient Narratives: Echoes from the Past

Of the 3,500 lobotomies Freeman was involved with during his career, approximately 490 individuals died because of his treatment. Moreover, many of the people who survived endured lasting negative effects. Consider Rosemary Kennedy, arguably the most famous case, who underwent a lobotomy in 1941, losing her ability to communicate and spending her life in care. Howard Dully, the youngest person to receive a lobotomy at only 12 years old, has publicly spoken about his story. In 2007 his memoir was released, and he talks about the effect the lobotomy had on his life. Such stories stress the need for compassionate care and ongoing research into past treatments.

Modern Insights through Imaging

As imaging technology advances, radiologists occasionally detect artifacts in MRI and CT scans hinting at patients' historical lobotomies. These artifacts manifest as subtle anomalies—linear scars or altered brain tissue density in frontal regions.

Reference Photo A

What Radiologists Observe

In routine scans of elderly patients, radiologists may note intriguing radiological signs hinting at past lobotomies:

Scars and Structural Shifts: A lobotomy involved physically altering brain tissue, leaving distinct marks like irregular scars or structural abnormalities in the frontal lobes, visible as changes in density or signal intensity on scans.

White Matter Variations: Studies suggest lobotomy may disrupt brain white matter, impacting connectivity and function between brain regions, detectable through changes in white matter integrity or volume.

Frontal Lobe Shrinkage: In some cases, lobotomy results in noticeable frontal lobe shrinkage or atrophy, affecting cognitive functions and emotional control, observable as reduced volume or thinning on scans.

Calcifications: Some patients exhibit brain calcifications at lobotomy sites, appearing as dense areas on CT scans.

Asymmetry: Lobotomies often lead to asymmetrical brain structures.

Clinical and Ethical Considerations

Encountering these findings prompts radiologists to weigh clinical implications and ethical dimensions:

Clinical Management: Knowledge of a patient's lobotomy history informs treatment strategies for present neurological or psychiatric symptoms.

Ethical Reflection: Reflecting on lobotomy history raises ethical questions about medical practices, consent, and long-term repercussions of invasive treatments, underscoring modern medical ethics and informed consent.

Reference Photo B


In Conclusion

Today, remnants of lobotomies appear in older patients' scans, serving as reminders of ethical diligence and evidence-based medicine. The legacy persists in historical records and personal histories, urging us toward compassionate care and research-driven medical progress. The lobotomy now stands as a tragic chapter in medical history. The brutal methods and dire outcomes have left enduring scars. Each scan tells a story—a story of the past shaping our approach to modern medicine.

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References on our blog at aheconline.blog

Photo A Source: Characteristics and MR findings in eight schizophrenic prefrontal lobotomy patients Credit: Akira Uchino,?Akira Kato,?Takefumi Yuzuriha,?Yuki Takashima?and?Sho KudoAmerican Journal of Neuroradiology?Feb 2001,?22?(2)?301-304


Photo B Source: A?and?B,?Two contiguous axial FLAIR image shows a small bilateral cavitary lesion in the medial frontal white matter. The cortical sulci of bifrontal lobes are dilated mildly Credit: Akira Uchino,?Akira Kato,?Takefumi Yuzuriha,?Yuki Takashima?and?Sho KudoAmerican Journal of Neuroradiology?Feb 2001,?22?(2)?301-304

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