phineas gage case study psychology pdf

Phineas Gage: His Accident and Impact on Psychology

Olivia Guy-Evans, MSc

Associate Editor for Simply Psychology

BSc (Hons) Psychology, MSc Psychology of Education

Olivia Guy-Evans is a writer and associate editor for Simply Psychology. She has previously worked in healthcare and educational sectors.

Learn about our Editorial Process

Saul McLeod, PhD

Editor-in-Chief for Simply Psychology

BSc (Hons) Psychology, MRes, PhD, University of Manchester

Saul McLeod, PhD., is a qualified psychology teacher with over 18 years of experience in further and higher education. He has been published in peer-reviewed journals, including the Journal of Clinical Psychology.

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Key Takeaways

• In 1848, 25-year-old Phineas Gage survived an accident where an iron rod was propelled through his left cheek and skull. He made an improbable recovery and lived for 12 more years.

Examination of Gage’s exhumed skull in 1867 revealed the probable trajectory of the tamping iron through left frontal lobe structures, offering insight into his improbable survival and selective changes in behavior following this massive traumatic brain injury.

• Gage’s case is famous in psychology as it shows the resilience of the human brain and profoundly influenced early understanding of cerebral localization.

What happened to Phineas Gage?

Phineas Gage was an American railroad construction foreman born in 1823 near Lebanon, New Hampshire.

On September 13, 1848, when Gage was 25 years old, he was working in Cavendish, Vermont, leading a crew preparing a railroad bed for the Rutland and Burlington Railroad by blasting away rock using explosives.

Around 4:30 pm, as Gage was using a 43-inch-long, 13-pound iron tamping rod to pack the explosive powder into a hole in the rock, the powder detonated unexpectedly.

The tamping iron launched from the hole and entered the left side of Gage’s face from the bottom up.

The iron rod entered Gage’s left cheek near the lower jaw hinge, passing behind his left eye socket, penetrating the base of his skull, traversing the left frontal lobe upwards at an angle, and exiting through the top frontal portion of his skull before landing about 25-30 yards behind him.

After the incident, Gage was thrown onto his back from the force of the iron rod and had some brief convulsions of the arms and legs.

Within minutes, however, assisted by his crew, Gage could stand, speak, and walk to an oxcart to be transported nearly a mile to the inn where he resided in Cavendish village.

Dr. Edward H. Williams arrived about an hour later to examine Gage. In his 1848 report, Williams noted visible pulsations of Gage’s exposed brain through an inverted funnel-shaped opening at the top of his skull from which brain tissue protruded.

Williams claimed that Gage was recounting his injuries to bystanders, and he did not initially believe the story, thinking that Gage was ‘deceived.’

Apparently, Gage had greeted Williams by angling his head at him and saying, ‘Here’s business enough for you.’

During repeated episodic vomiting, Williams observed additional small amounts of Gage’s brain matter expelled onto the floor through the frontal exit wound, as the cerebral tissue had likely detached from the skull during the passage of the tamping iron.

From Harlow’s written account, Gage was considered to be fully recovered and felt fit enough to reapply for his previous role as a foreman.

After an arduous early recovery, Gage eventually regained physical health, though his personality was markedly altered. He lived another 11 years before dying from severe epilepsy in 1860 at age 36.

How Did Phineas Gage’s Personality Change?

The descriptions of Gage’s personality and behavior before the accident are limited.

Before his accident, 25-year-old Gage was described by his railroad employers as a capable and efficient foreman, displaying a strong work ethic, drive, and dependability in overseeing his crews.

However, after surviving passage of the tamping iron through his frontal lobe in 1848, significant changes in Gage’s personality emerged during his physical recovery.

The contractors, who had regarded Gage as ‘efficient and capable’ before the accident, could no longer offer him work due to considerable changes in Gage’s personality.

In medical reports by Dr. John Martyn Harlow in 1848 and 1868, Gage is depicted as struggling with volatility, profanity, little deference for others, impatience, obstinance, unpredictability, and devising plans hastily abandoned.

Harlow wrote that Gage’s equilibrium between intellectual faculties and animal propensities was destroyed, reverting to childlike mental capacity regarding self-restraint and social appropriateness.

Though the specific neuroanatomical links were unclear at the time, Friends and colleagues felt Gage was “no longer Gage” after the traumatic brain injury, unable to process emotions or control impulsive behavior like his pre-accident self.

The shocking changes aligned with emerging localization theories that the frontal lobes regulate personality.

Marlow (1868) described Gage as follows:

“The equilibrium or balance, so to speak, between his intellectual faculties and animal propensities, seems to have been destroyed. He is fitful, irreverent, indulging at times in the grossest profanity (which was not previously his custom), manifesting but little deference for his fellows, impatient of restraint or advice when it conflicts with his desires, at times pertinaciously obstinate, yet capricious and vacillating, devising many plans of future operations, which are no sooner arranged than they are abandoned in turn for others appearing more feasible. A child in his intellectual capacity and manifestations, he has the animal passions of a strong man.”

“Previous to his injury, though untrained in the schools, he possessed a well-balanced mind, and was looked upon by those who knew him as a shrewd, smart business man, very energetic and persistent in executing all his plans of operation. In this regard his mind was radically changed, so decidedly that his friends and acquaintances said he was ‘no longer Gage.”

Through Harlow’s reports, it can be suggested that Gage’s personality changed due to the accident he endured.

The accounts imply that the injury led to a loss of social inhibition, meaning that Gage would behave in ways that were considered inappropriate.

Accuracy of Sources

In his 1848 and 1868 reports, Dr. Harlow provides a limited description of Gage’s pre-accident, stating he was “temperate inhabit, of great energy of character, possessed of considerable stamina of both brain and body” and was “a great favorite” with his men (Harlow, 1848, 1868).

However, later accounts add exaggerated positive traits not found in Harlow’s description. For example, Suinn (1970) describes Gage as enjoying “the respect as well as the favor of his men,” while Myers (1998) calls him “soft-spoken,” and Lahey (1992) says he was “polite and reasonable.”

Other sources paint him as friendly, affable, dependable, conscientious, and happy (Macmillan, 2000).

Similarly, post-accident descriptions often emphasize Gage’s negative qualities while ignoring any positive traits he retained.

Harlow documents personality changes but notes Gage remained employable for a period as a long-distance stagecoach driver in Chile (Harlow, 1868).

However, many accounts focus solely on traits like aggression, unreliability, or aimlessness (Macmillan, 2000). Damasio goes so far as to describe him as behaving violently with no self-control (Blakeslee, 1994).

In this way, later accounts tend to polish Gage’s pre-accident image as an upstanding citizen while presenting an almost cartoonishly perturbed version post-injury – neither in keeping with Harlow’s more nuanced clinical descriptions.

This likely reflects enthusiasm for fitting Gage’s case to localization theories. Macmillan (2000) argues that we must cautiously analyze such embellished personality descriptions when assessing Phineas Gage’s legacy.

Severity of Gage’s Brain Damage

When Gage died in 1861, no autopsies were performed until his skull was later recovered by Harlow years later. The brain damage that caused the significant personality changes was presumed to have involved the left frontal region of the brain.

It was not until 1994 that complex computer-based methods to examine brain damage could be used to investigate whether other areas of the brain were affected.

Damasio et al. (1994) used measurements from Gage’s skull and neuroimaging techniques to determine the exact placement of the entry and exit point of the iron rod on a replica model (see Fig. 1).

They found that the damage caused by the rod involved both the left and right prefrontal cortices.

The left and right cortices are responsible for emotional processing and rational decision-making; therefore, it can be assumed that Gage had deficits in these areas.

A later study by Ratiu et al. (2004) also investigated Gage’s injury and the location of where the iron rod entered and exited the head. They used Gage’s actual skull rather than a model of it, as Damasio et al. (1994) had used.

Ratiu et al. (2004) generated three-dimensional reconstructions of the skull using computed tomography scans (CAT) and found that the extent of the brain injury was limited to the left frontal lobe only and did not extend to the right lobe (see Fig. 2).

More recently, Van Horn et al. (2012) used a CAT scan of Gage’s skull as well as magnetic resonance imaging (MRI) data obtained from male participants of a similar age to Gage at the time (aged 25-36).

Their results supported Ratiu et al. (2004) in that they always concluded that the rod only damaged the left lobe and not the right.

Van Horn, however, went a step further in their research and investigated the potential levels of white and grey matter damaged due to Gage’s injury. White matter is deep in the brain and provides vital connections around the brain, essential to normal motor and sensory function.

Grey matter in the brain is essential to many areas of higher learning, including attention, memory, and thought.

The research by Van Horn proposed that Gage lost about 11% of his white matter and about 4% of his grey matter. White matter has the ability to regenerate, so this could explain why Gage recovered as well as he did.

Van Horn et al. (2012) compared Gage’s white matter damage to the damage that is caused by neurogenerative diseases such as Alzheimer’s.

This is supported by other studies that have found that changes in white matter is significantly associated with Alzheimer’s disease (Nasrabady, Rizvi, Goldman & Brickman, 2018; Kao, Chou, Chen & Yang, 2019).

It could be suggested that Gage’s apparent change in personality could have been the result of an early onset of Alzheimer’s.

However, as Dr. Harlow, who examined Gage, only reported on Gage’s behaviors shortly after his accident, rather than months or years later when Alzheimer’s symptoms may have emerged, we cannot be certain whether Gage actually had this condition.

All studies investigating the brain damage suffered by Gage is essentially all speculation as we cannot know for certain the extent of the accident’s effects.

We know that some brain tissue got destroyed, but any infections Gage may have suffered after the accident may have further destroyed more brain tissue.

We also cannot determine the exact location where the iron rod entered Gage’s skull to the millimeter. As brain structure varies from person to person, researchers cannot ever know for certain what areas of Gage’s brain were destroyed.

What Happened to Phineas Gage After the Brain Damage?

Dr. John Martyn Harlow took over Gage’s case soon after. Harlow (1848) reported that Gage was fully conscious and recognized Harlow immediately but was tired from the bleeding.

In the next couple of days, Harlow observed that Gage spoke with some difficulty but could name his friends, and the bleeding ceased. Gage then spent September 23rd to October 3rd in a semi-comatose state but was able to take steps out of bed by October 7th.

By October 11th, Harlow claimed Gage’s intellectual functioning began to improve. He recognized how much time had passed since the accident and could describe the accident clearly.

Four years after his injury, Gage moved to Chile and worked taking care of horses and being a stagecoach driver.

Harlow noted emerging personality changes in this period, with Gage becoming more erratic in behavior and responsibility.

In 1860, Gage moved to San Francisco to live near family but began suffering epileptic seizures – likely related to scar tissue and injury sequelae.

The convulsions worsened over months, and on May 21, 1861, almost 13 years after his shocking accident, Gage died at age 38 from complications of severe epilepsy.

How did Phineas Gage die?

On May 21st, 1861, twelve years after his accident, Gage died after having a series of repeated epileptic convulsions.

In 1867, Harlow arranged an exhumation of Gage’s body, claiming his skull and tamping iron for medical study.

These historic artifacts remain on display at the Harvard School of Medicine.

Though Gage initially survived, it was the secondary long-term effects of this massive brain injury that ultimately led to his premature death over a decade later.

Why Is Phineas Gage Important to Psychology?

Gage’s case is important in the field of neuroscience . The reported changes in his behavior post-accident are strong evidence for the localization of brain function , meaning that specific brain areas are associated with certain functions.

Neuroscientists have a better understanding of the function of the frontal cortex today. They understand that the frontal cortex is associated with language, decision-making, intelligence, and reasoning functions. Gage’s case became one of the first pieces of evidence suggesting that the frontal lobe was directly involved in personality.

It was believed that brain lesions caused permanent deficits in a person. However, Gage was proven to have recovered remarkably and lived a mostly normal life despite his injury. It was even suggested by a psychologist called Malcolm Macmillan that Gage may have relearned lost skills.

People with damage to their frontal lobes tend to have trouble completing tasks, get easily distracted, and have trouble planning.

Despite this damage to his frontal lobe, Gage was reported to have worked as a coach driver which would have involved Gage being focused and having a routine, as well as knowing his routes and multitasking.

Macmillan (2002), therefore, suggests that Gage’s damage to the frontal lobe could have somewhat repaired itself and recovered lost functions. The ability of the brain to change in this way is called brain plasticity .

Over time, Gage’s story has been retold, and this has sometimes led to a lot of exaggeration as to the personality changes of Gage.

Some popular reports described him as a hard-working, kind man prior to the accident and then described him as an aggressive, dishonest, and drunk man who could not hold down a job and died pennilessly.

Gage’s story seemed to take on a life of its own, and some even went as far as to say that Gage became a psychopath after his accident, without any facts behind this.

From the actual reports from the people in contact with Gage at the time, it appears that his personality change was nowhere near as extreme and that Gage was far more functional than some reports would have us believe (Macmillan, 2002).

Blakeslee, S. (1994, July 6). A miraculous recovery that went wrong . New York Times.

Damasio, H., Grabowski, T., Frank, R., Galaburda, A. M., & Damasio, A. R. (1994). The return of Phineas Gage: clues about the brain from the skull of a famous patient . Science, 264 (5162), 1102-1105.Harlow J. M. (1848). Passage of an iron rod through the head. Boston Medical and Surgical Journal, 39 , 389–393.

Harlow, J. M. (1868). Recovery from the Passage of an Iron Bar through the Head . Publications of the Massachusetts Medical Society. 2 (3), 327-347.

Kao, Y. H., Chou, M. C., Chen, C. H., & Yang, Y. H. (2019). White matter changes in patients with Alzheimer’s disease and associated factors . Journal of Clinical Medicine, 8 (2), 167.

Lahey, B. B. (1992). Psychology: An introduction . Wm. C. Brown Publishers.

Macmillan, M. (2000). Restoring Phineas Gage: A 150th retrospective. Journal of the History of the Neurosciences, 9 (1), 46-66.

Macmillan, M. (2002). An odd kind of fame: Stories of Phineas Gage. MIT Press.

Myers, D. G. (1998). Psychology (5th ed.). Worth Publishers.

Nasrabady, S. E., Rizvi, B., Goldman, J. E., & Brickman, A. M. (2018). White matter changes in Alzheimer’s disease: a focus on myelin and oligodendrocytes. Acta neuropathologica communications, 6 (1), 1-10.

Ratiu, P., Talos, I. F., Haker, S., Lieberman, D., & Everett, P. (2004). The tale of Phineas Gage, digitally remastered . Journal of neurotrauma, 21 (5), 637-643.

Suinn, R. M. (1970). Fundamentals of behavior pathology. Wiley.

Van Horn, J. D., Irimia, A., Torgerson, C. M., Chambers, M. C., Kikinis, R., & Toga, A. W. (2012). Mapping connectivity damage in the case of Phineas Gage . PloS one, 7(5) , e37454.

Further Reading

• Griggs, R. A. (2015). Coverage of the Phineas Gage Story in Introductory Psychology Textbooks: Was Gage No Longer Gage?. Teaching of Psychology, 42(3), 195-202.
• Wilgus, J., & Wilgus, B. (2009). Face to face with Phineas Gage. Journal of the History of the Neurosciences, 18(3), 340-345.
• Macmillan, M., & Lena, M. L. (2010). Rehabilitating Phineas Gage. Neuropsychological Rehabilitation, 20, 641–658.
• Macmillan, M. (2000). Restoring phineas gage: a 150th retrospective. Journal of the History of the Neurosciences, 9(1), 46-66.
• Kotowicz, Z. (2007). The strange case of Phineas Gage. History of the Human Sciences, 20(1), 115-131.
• O”driscoll K, Leach JP. “No longer Gage”: an iron bar through the head. Early observations of personality change after injury to the prefrontal cortex. BMJ. 1998;317(7174):1673-4. doi:10.1136/bmj.317.7174.1673a

If a person suffers from a traumatic brain injury in the prefrontal cortex, similar to that of Phineas Gage, what changes might occur?

A traumatic brain injury to the prefrontal cortex could result in significant changes in personality, emotional regulation, and executive function. This region is vital for impulse control, decision-making, and moderating social behavior.

A person may exhibit increased impulsivity, poor judgment, and reduced ability to plan or organize. Emotional volatility and difficulty in interpersonal relationships may also occur.

Just like the case of Phineas Gage, who became more impulsive and less dependable, the injury could dramatically alter one’s character and abilities.

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Phineas Gage's great legacy

O grande legado de phineas gage, ricardo vieira teles, filho.

1 Faculty of Medicine, Universidade Federal de Goiás – Goiânia, GO, Brazil.

The case of Phineas Gage is an integral part of medical folklore. His accident still causes astonishment and curiosity and can be considered as the case that most influenced and contributed to the nineteenth century's neuropsychiatric discussion on the mind-brain relationship and brain topography. It was perhaps the first case to suggest the role of brain areas in determining personality and which specific parts of the brain, when affected, can induce specific mental changes. In addition, his case contributed to the emergence of the scientific approaches that would later culminate in psychosurgery. Gage is a fixed element in the studies of neurology, psychology, and neuroscience, having been solidified as one of the greatest medical curiosities of all time, deserving its prominence.

O caso de Phineas Gage é parte integrante do folclore médico. Seu acidente ainda causa espanto e curiosidade, e pode ser considerado como o caso que mais influenciou e contribuiu para a discussão neuropsiquiátrica do século XIX sobre a relação mente-cérebro e topografia cerebral. Foi talvez o primeiro caso a sugerir o papel de áreas cerebrais na determinação da personalidade e que partes específicas do cérebro, quando afetadas, podem induzir mudanças mentais específicas. Além disso, seu caso contribuiu para o surgimento de abordagens cientificas que culminariam posteriormente na psicocirurgia. Gage é um elemento fixo nos estudos de neurologia, psicologia e neurociências, tendo sido solidificado como uma das grandes curiosidades médicas de todos os tempos que merece seu destaque.

THE ACCIDENT

Gage, a 25-year-old male, 1.70 m in height and weighing approximately 70 kg, was employed in railroad construction at the time of the accident. As the company's most capable employee, with a well-balanced mind and a sense of leadership, he was directing a rock-splitting workgroup while preparing the bed of the Rutland & Burlington Railroad south of Cavendish, Vermont, USA. At 4:30 PM on September 13, 1848, he and his group were blasting a rock, and Gage was assigned to put gunpowder in a deep hole inside it. 1

The moment he pressed the gunpowder into the hole with a bar, the friction caused sparks, and the powder exploded. The resulting blast projected the meter-long bar, which was 3.2 cm in diameter and weighed about 6 kg, through his skull at high speed. The bar entered his left cheek, destroyed his eye, passed through the left front of the brain, and finally completely left his head at the top of the skull on the right side. Gage was thrown on his back and had some brief convulsions, but he woke up and spoke in a few minutes, walked with a little help, and sat in an ox cart for the 1.2-km trip to his quarters. 1

In the city about 30 minutes after the accident, Doctor Edward H. Williams arrived to provide medical care. Gage had lost a lot of blood, and his following days were quite difficult. 1 The wound became infected, and Phineas was anemic and remained semicomatose for more than two weeks. He also developed a fungal infection in the exposed brain that needed to be surgically removed. His condition slowly improved after doses of calomel and beaver oil. By mid-November he was already walking around the city. 2

THE CONSEQUENCES

For three weeks after the accident, the wound was treated by doctors. During this time, he was assisted by Dr. John Harlow, who covered the head wound and then reported the case in the Boston Medical Surgery Journal. In November 1849, invited by the professor of surgery at Harvard Medical School, Henry Jacob Bigelow, Harlow took Gage to Boston and introduced him to a meeting of the Boston Society for Medical Improvement ( Figure 1 ). 3

In his reports, Harlow described that the physical injury profoundly altered Gage's personality. Although his memory, cognition and strength had not been altered, his once gentle personality slowly degraded. He became a man of bad and rude ways, disrespectful to colleagues, and unable to accept advice. His plans for the future were abandoned, and he proceeded without thinking about the consequences. 4 And here was the main point of this curious story: Gage became irritable, irreverent, rude and profane, aspects that were not part of his way of being. His mind had changed radically. His transformation was so great that everyone said that “Gage is no longer himself.” 5

As a result of this personality change, he was fired for indiscipline and could no longer hold a steady job. He became a circus attraction and even tried life in Chile, later returning to the United States. However, there is something still little known about Gage: his personality changes lasted for about four years, slowly reverting later. As a proof of this, he worked as a long-haul driver in Chile, a job that required considerable planning and focus skills. He died on May 21, 1861, 12 years after the accident, from an epileptic seizure that was almost certainly related to his brain injury. He was not submitted to an autopsy, but his mother, after exhumation of the body, donated his skull and iron rod at the request of Dr. Harlow, which, in turn, sometime later donated them to Harvard University ( Figure 2 ). 1

Gage's case is considered to be one of the first examples of scientific evidence indicating that damage to the frontal lobes may alter personality, emotions and social interaction. 6 Prior to this case, the frontal lobes were considered silent structures, without function and unrelated to human behavior. Scottish neurologist, David Ferrier, was motivated by this fact to investigate the role of frontal lobes in brain function. Ferrier removed the frontal lobes in monkeys and noted that there were no major physiological changes, but the character and behavior of the animals were altered. 7

Knowledge that the frontal lobe was involved with emotions continued to be studied. The surgeon Burkhardt in 1894 performed a series of surgeries in which he selectively destroyed the frontal lobes of several patients in whom he thought might control psychotic symptoms, being the modern prototype of what was later known through Egas Moniz as psychosurgery. 7 Today, it is well understood that the prefrontal cortex of the brain controls the organization of behavior, including emotions and inhibitions.

Folkloric as it may be, but nonetheless remarkable, the contribution of Phineas Gage's case should not be overlooked, as it provided scientists the baseline for the promotion of studies in neuropsychiatry, and a source of inspiration for world medicine. 8 In 2012, a team of neuroscientists used computed tomography of Gage's skull with typical brain MRI scans to show how the Gage brain connection could have been affected. 9 And it is not just the researchers who keep coming back to Gage. Medical and psychology students still learn about Gage from their history lessons. Neurosurgeons and neurologists still sometimes use Gage as a reference when evaluating certain cases. 10 The final chapter of his life also offers us a thought-provoking learning about cases of massive brain damage, showing us that rehabilitation may be possible. 11

Therefore, Gage — inadvertently — made a huge contribution to neurology in several areas, including the study of brain topography in behavioral disorders, the development of psychosurgery, and finally the study of brain rehabilitation. Also, Gage's case had a tremendous influence on early neuropsychiatry. The specific changes observed in his behavior pointed to theories about the localization of brain function and correlated with cognitive and behavioral sequelae, thereby acquainting us with the role of the frontal cortex in higher-order actions such as reasoning, behavior and social cognition. In those years, while neuropsychiatry was in its infancy, Gage's extraordinary story served as one of the first pillars of evidence that the frontal lobe is involved in personality, which helped solidify his remarkable legacy in world medical history.

This study was conducted at the Universidade Federal de Goiás, Goiânia, GO, Brazil.

Funding: none.

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Lessons of the brain: The Phineas Gage story

Harvard Correspondent

In 1848, an iron bar pierced his brain, his case providing new insights on both trauma and recovery

Imagine the modern-day reaction to a news story about a man surviving a three-foot, 7-inch, 13½-pound iron bar being blown through his skull — taking a chunk of his brain with it.

Then imagine that this happened in 1848, long before modern medicine and neuroscience. That was the case of Phineas Gage.

Whether the Vermont construction foreman, who was laying railroad track and using explosives at the time of the industrial accident, was lucky or unlucky is a judgment that Warren Anatomical Museum curator Dominic Hall puzzles over to this day.

“It is an impossible question, because he was extraordinarily unlucky to have an iron bar borne through his skull, but equally lucky to have survived, on such a low level of care,” said Hall. “We are lucky, to have him.”

Gage’s skull, along with the tamping iron that bore through it, are two of the approximately 15,000 artifacts and case objects conserved at the Warren, which is a part of the Center for the History of Medicine in Harvard’s Francis A. Countway Library of Medicine .

The resultant change in Gage’s personality — when he went from being well-liked and professionally successful to being “fitful, irreverent, and grossly profane, showing little deference for his fellows” and unable to keep his job — is widely cited in modern psychology as the textbook case for post-traumatic social disinhibition.

But as the years have gone by and we’ve learned more about his life, argued Hall, the teachings have changed.

“In 1848, he was seen as a triumph of human survival. Then, he becomes the textbook case for post-traumatic personality change. Recently, people interpret him as having found a form of independence and social recovery, which he didn’t get credit for 15 years ago.”

When Gage died 12 years after the accident, following epileptic seizures, his body was exhumed, while his skull and tamping iron were sent to the physician who had cared for him since the accident, John Harlow. Harlow later donated the items to the Warren, where they have remained for 160 years.

“In many ways, I see Gage similarly to how you would see a portrait of one of the famous professors hanging on the wall — he’s an important part of Harvard Medical School’s identity,” said Hall. “By continually reflecting on his case, it allows us to change how we reflect on the human brain and how we interact with our historical understanding of neuroscience.”

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• DOI: 10.1177/0952695106075178
• Corpus ID: 145698840

The strange case of Phineas Gage

• Zbigniew Kotowicz
• Published 1 February 2007
• History of the Human Sciences

16 Citations

Neuroscience education begins with good science: communication about phineas gage (1823–1860), one of neurology’s most-famous patients, in scientific articles, coverage of the phineas gage story in introductory psychology textbooks.

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Rehabilitating Phineas Gage

Cultural and social history of psychiatry, face to face with phineas gage, chapter 1 – historical antecedents, social order and disorder in autism, validation of the barkley deficits of executive functioning-short form, validation of the barkley deficits of executive functioning scale-short form, beyond local domains: connective ontology in (post-)cognitive sociology, 13 references, an odd kind of fame : stories of phineas gage, recovery from the passage of an iron bar through the head, the integration of neurology, psychiatry, and neuroscience in the 21st century., a neural basis for collecting behaviour in humans., eliminative materialism and the propositional attitudes, is your brain really necessary.

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Mental Pathology and Therapeutics

Mind and cognition, case of recovery from the passage of an iron bar through the head, related papers.

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Phineas Gage: His Accident and Impact on Psychology

Author unknown / Wikimedia Commons

• Phineas Gage's Accident
• Change in Personality
• Severity of Brain Damage
• Impact on Psychology

What Happened to Phineas Gage After the Brain Damage?

Phineas Gage is often referred to as the "man who began neuroscience." He experienced a traumatic brain injury when an iron rod was driven through his skull, destroying much of his frontal lobe .

Gage miraculously survived the accident. However, his personality and behavior were so changed as a result of the frontal lobe damage that many of his friends described him as an almost different person entirely. The impact that the accident had has helped us better understand what the frontal lobe does, especially in relation to personality .

At a Glance

In 1848, Phineas Gage had a workplace accident in which an iron tamping rod entered and exited his skull. He survived but it is said that his personality changed as a result, leading to a greater understanding of the brain regions involved in personality, namely the frontal lobe.

Phineas Gage's Accident

On September 13, 1848, 25-year-old Gage was working as the foreman of a crew preparing a railroad bed near Cavendish, Vermont. He was using an iron tamping rod to pack explosive powder into a hole.

Unfortunately, the powder detonated, sending the 43-inch-long, 1.25-inch-diameter rod hurling upward. The rod penetrated Gage's left cheek, tore through his brain , and exited his skull before landing 80 feet away.

Gage not only survived the initial injury but was able to speak and walk to a nearby cart so he could be taken into town to be seen by a doctor. He was still conscious later that evening and able to recount the names of his co-workers. Gage even suggested that he didn't wish to see his friends since he would be back to work in "a day or two" anyway.

The Recovery Process

After developing an infection, Gage spent September 23 to October 3 in a semi-comatose state. On October 7, he took his first steps out of bed, and, by October 11, his intellectual functioning began to improve.

Descriptions of Gage's injury and mental changes were made by Dr. John Martyn Harlow. Much of what researchers know about the case is based on Harlow's observations.

Harlow noted that Gage knew how much time had passed since the accident and remembered clearly how the accident occurred, but had difficulty estimating the size and amounts of money. Within a month, Gage was well enough to leave the house.

In the months that followed, Gage returned to his parent's home in New Hampshire to recuperate. When Harlow saw Gage again the following year, the doctor noted that while Gage had lost vision in his eye and was left with obvious scars from the accident, he was in good physical health and appeared recovered.

Theories About Gage's Survival and Recovery

The type of injury sustained by Phineas Gage could have easily been fatal. While it cannot be said with certainty why Gage was able to survive the accident, let alone recover from the injury and still function, several theories exist. They include:

• The rod's path . Some researchers suggest that the rod's path likely played a role in Gage's survival in that if it had penetrated other areas of the head—such as the pterygoid plexuses or cavernous sinus—Gage may have bled to death.
• The brain's selective recruitment . In a 2022 study of another individual who also had an iron rod go through his skull—whom the researchers referred to as a "modern-day Phineas Gage"—it was found that the brain is able to selectively recruit non-injured areas to help perform functions previously assigned to the injured portion.
• Work structure . Others theorize that Gage's work provided him structure, positively contributing to his recovery and aiding in his rehabilitation.

How Did Phineas Gage's Personality Change?

Popular reports of Gage often depict him as a hardworking, pleasant man before the accident. Post-accident, these reports describe him as a changed man, suggesting that the injury had transformed him into a surly, aggressive heavy drinker who was unable to hold down a job.

Harlow presented the first account of the changes in Gage's behavior following the accident. Where Gage had been described as energetic, motivated, and shrewd prior to the accident, many of his acquaintances explained that after the injury, he was "no longer Gage."

Severity of Gage's Brain Damage

Since there is little direct evidence of the exact extent of Gage's injuries aside from Harlow's report, it is difficult to know exactly how severely his brain was damaged. Harlow's accounts suggest that the injury did lead to a loss of social inhibition, leading Gage to behave in ways that were seen as inappropriate.

In a 1994 study, researchers utilized neuroimaging techniques to reconstruct Phineas Gage's skull and determine the exact placement of the injury. Their findings indicate that he suffered injuries to both the left and right prefrontal cortices, which would result in problems with emotional processing and rational decision-making .

Another study conducted in 2004 used three-dimensional, computer-aided reconstruction to analyze the extent of Gage's injury. It found that the effects were limited to the left frontal lobe.

In 2012, new research estimated that the iron rod destroyed approximately 11% of the white matter in Gage's frontal lobe and 4% of his cerebral cortex.

Some evidence suggests that many of the supposed effects of the accident may have been exaggerated and that Gage was actually far more functional than previously reported.

Why Is Phineas Gage Important to Psychology?

Gage's case had a tremendous influence on early neurology. The specific changes observed in his behavior pointed to emerging theories about the localization of brain function, or the idea that certain functions are associated with specific areas of the brain.

In those years, neurology was in its infancy. Gage's extraordinary story served as one of the first sources of evidence that the frontal lobe was involved in personality.

Today, scientists better understand the role that the frontal cortex has to play in important higher-order functions such as reasoning , language, and social cognition .

After the accident, Gage was unable to continue his previous job. According to Harlow, Gage spent some time traveling through New England and Europe with his tamping iron to earn money, supposedly even appearing in the Barnum American Museum in New York.

He also worked briefly at a livery stable in New Hampshire and then spent seven years as a stagecoach driver in Chile. He eventually moved to San Francisco to live with his mother as his health deteriorated.

After a series of epileptic seizures, Gage died on May 21, 1860, almost 12 years after his accident. Seven years after his death, Gage's body was exhumed. His brother gave his skull and the tamping rod to Dr. Harlow, who subsequently donated them to the Harvard University School of Medicine. They are still exhibited in its museum today.

Bottom Line

Gage's accident and subsequent experiences serve as a historical example of how case studies can be used to look at unique situations that could not be replicated in a lab. What researchers learned from Phineas Gage's skull and brain injury played an important role in the early days of neurology and helped scientists gain a better understanding of the human brain and the impact that damage could have on both functioning and behavior.

Sevmez F, Adanir S, Ince R. Legendary name of neuroscience: Phineas Gage (1823-1860) . Child's Nervous System . 2020. doi:10.1007/s00381-020-04595-6

Twomey S. Phineas Gage: Neuroscience's most famous patient .  Smithsonian Magazine.

Harlow JM. Recovery after severe injury to the head . Bull Massachus Med Soc . 1848. Reprinted in  Hist Psychiat. 1993;4(14):274-281. doi:10.1177/0957154X9300401407

Harlow JM. Passage of an iron rod through the head . 1848. J Neuropsychiatry Clin Neurosci . 1999;11(2):281-3. doi:10.1176/jnp.11.2.281

Itkin A, Sehgal T. Review of Phineas Gage's oral and maxillofacial injuries . J Oral Biol . 2017;4(1):3.

de Freitas P, Monteiro R, Bertani R, et al. E.L., a modern-day Phineas Gage: Revisiting frontal lobe injury . The Lancet Regional Health - Americas . 2022;14:100340. doi:10.1016/j.lana.2022.100340

Macmillan M, Lena ML. Rehabilitating Phineas Gage . Neuropsycholog Rehab . 2010;20(5):641-658. doi:10.1080/09602011003760527

O'Driscoll K, Leach JP. "No longer Gage": An iron bar through the head. Early observations of personality change after injury to the prefrontal cortex . BMJ . 1998;317(7174):1673-4. doi:10.1136/bmj.317.7174.1673a

Damasio H, Grabowski T, Frank R, Galaburda AM, Damasio AR. The return of Phineas Gage: Clues about the brain from the skull of a famous patient . Science . 1994;264(5162):1102-5. doi:10.1126/science.8178168

Ratiu P, Talos IF. Images in clinical medicine. The tale of Phineas Gage, digitally remastered . N Engl J Med . 2004;351(23):e21. doi:10.1056/NEJMicm031024

Van Horn JD, Irimia A, Torgerson CM, Chambers MC, Kikinis R, Toga AW. Mapping connectivity damage in the case of Phineas Gage . PLoS One . 2012;7(5):e37454. doi: 10.1371/journal.pone.0037454

Macmillan M. An Odd Kind of Fame: Stories of Phineas Gage . MIT Press.

Shelley B. Footprints of Phineas Gage: Historical beginnings on the origins of brain and behavior and the birth of cerebral localizationism . Archives Med Health Sci . 2016;4(2):280-6. doi:10.4103/2321-4848.196182

By Kendra Cherry, MSEd Kendra Cherry, MS, is a psychosocial rehabilitation specialist, psychology educator, and author of the "Everything Psychology Book."

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Case Report The Tale of Phineas Gage , Digitally Remastered

The injury of Phineas Gage has fueled research on and fascination with the localization of cerebral functions in the past century and a half. Most physicians and anatomists believed that Gage sustained a largely bilateral injury to the frontal lobes. However, previous studies seem to have overlooked a few less obvious, but essential details. This has led us to reanalyze the injury using threedimensional reconstruction and quantitative computer-aided techniques and to propose a new biomechanical model, in order to determine the location and extent of the injury and explain Gage’s improbable survival. Unlike previous studies on this subject, our findings are based on computergenerated three-dimensional reconstructions of a thin-slice computed tomography scan (CAT) of Phineas Gage’s skull. The results of our image analysis were corroborated with the clinical findings, thoroughly recorded by Dr. Harlow in 1848, as well as with a systematic examination of the original skull specimen. Our...

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The Neuroscience of Behavior: Five Famous Cases

Five patients who shaped our understanding of behavior and the brain..

Posted January 16, 2020 | Reviewed by Lybi Ma

“Considering everything, it seems we are dealing here with a special illness… There are certainly more psychiatric illnesses than are listed in our textbooks.” —Alois Alzheimer (In: Benjamin, 2018)

Once thought to be the product of demonic possession, immorality, or imbalanced humors, we now know that psychiatric symptoms are often caused by changes in the brain. Read on to learn about the people who helped us understand the brain as the driving force behind our behaviors.

Phineas Gage

In 1848, John Harlow first described the case of a 25-year-old railroad foreman named Phineas Gage. Gage was a "temperate" man: hardworking, polite, and well-liked by all those around him. One day, Gage was struck through the skull by an iron rod launched in an accidental explosion. The rod traveled through the prefrontal cortex of his brain. Remarkably, he survived with no deficits in his motor function or memory . However, his family and friends noticed major changes in his personality . He became impatient, unreliable, vulgar, and was even described as developing the "animal passions of a strong man." This was the first glimpse into the important role of the prefrontal cortex in personality and social behavior (David, 2009; Thiebaut de Schotten, 2015; Benjamin, 2018).

Louis Victor Leborgne

Pierre Broca first published the case of 50-year-old Louis Victor Leborgne in 1861. Despite normal intelligence , Leborgne inexplicably lost the ability to speak. His nickname was Tan, after this became the only word he ever uttered. He was otherwise unaffected and seemed to follow directions and understand others without difficulty. After he died, Broca examined his brain, finding an abnormal area of brain tissue only in the left anterior frontal lobe. This suggested that the left and right sides of the brain were not always symmetric in their functions, as previously thought. Broca later went on to describe several other similar cases, cementing the role of the left anterior frontal lobe (now called Broca’s area) as a crucial region for producing (but not understanding) language (Dronkers, 2007; David, 2009; Thiebaut de Schotten, 2015).

Auguste Deter

Psychiatrist and neuropathologist Aloysius Alzheimer described the case of Auguste Deter, a 56-year-old woman who passed away in 1906 after she developed strange behaviors, hallucinations, and memory loss. When Alzheimer looked at her brain under the microscope, he described amyloid plaques and neurofibrillary tangles that we now know are a hallmark of the disease that bears his name. This significant discovery was the first time that a biological molecule such as a protein was linked to a psychiatric illness (Shorter, 1997; David, 2009; Kalia & Costa e Silva, 2015).

In 1933, Spafford Ackerly described the case of "JP” who, beginning at a very young age, would do crude things like defecate on others' belongings, expose himself, and masturbate in front of other children at school. These behaviors worsened as he aged, leading to his arrest as a teenager . He was examined by Ackerly who found that the boy had a large cyst, likely present from birth, that caused severe damage to his prefrontal cortices. Like the case of Phineas Gage, JP helped us understand the crucial role that the prefrontal cortex plays in judgment, decision-making , social behaviors, and personality (Benjamin, 2018).

HM (Henry Gustav Molaison)

William Scoville first described the case of HM, a 29-year-old man whom he had treated two years earlier with an experimental surgery to remove his medial temporal lobes (including the hippocampus and amygdala on both sides). The hope was that the surgery would control his severe epilepsy, and it did seem to help. But with that improvement came a very unexpected side effect: HM completely lost the ability to form certain kinds of new memories. While he was still able to form new implicit or procedural memories (like tying shoes or playing the piano), he was no longer able to form new semantic or declarative memories (like someone’s name or major life events). This taught us that memories were localized to a specific brain region, not distributed throughout the whole brain as previously thought (David, 2009; Thiebaut de Schotten, 2015; Benjamin, 2018).

Facebook /LinkedIn image: Gorodenkoff/Shutterstock

Benjamin, S., MacGillivray, L., Schildkrout, B., Cohen-Oram, A., Lauterbach, M.D., & Levin, L.L. (2018). Six landmark case reports essential for neuropsychiatric literacy. J Neuropsychiatry Clin Neurosci, 30 , 279-290.

Shorter, E., (1997). A history of psychiatry: From the era of the asylum to the age of Prozac. New York: John Wiley & Sons, Inc.

Thiebaut de Schotten, M., Dell'Acqua, F., Ratiu, P. Leslie, A., Howells, H., Cabanis, E., Iba-Zizen, M.T., Plaisant, O., Simmons, A, Dronkers, N.F., Corkin, S., & Catani, M. (2015). From Phineas Gage and Monsieur Leborgne to H.M.: Revisiting disconnection syndromes. Cerebral Cortex, 25 , 4812-4827.

David, A.S., Fleminger, S., Kopelman, M.D., Lovestone, S., & Mellers, J. (2009). Lishman's organic psychiatry: A textbook of neuropsychiatry. Hoboken, NJ: Wiley-Blackwell.

Kalia, M., & Costa e Silva, J. (2015). Biomarkers of psychiatric diseases: Current status and future prospects. Metabolism, 64, S11-S15.

Dronkers, N.F., Plaisant, O., Iba-Zizen, M.T., & Cabanis, E.A. (2007). Paul Broca's historic cases: High resolution MR Imaging of the brains of Leborgne and Lelong. Brain , 130, 1432–1441.

Scoville, W.B., & Milner, B. (1957). Loss of recent memory after bilateral hippocampal lesions. J. Neurol. Neurosurg. Psychiat., 20, 11-21.

Melissa Shepard, MD , is an assistant professor of psychiatry at the Johns Hopkins School of Medicine.

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