TürkçeChest wall diseases encompass a group of clinical conditions involving structural, infectious, traumatic, or tumoral pathologies that affect the ribs, sternum, muscles, and connective tissues. These diseases may progress with pain, respiratory restriction, and deformity, and early diagnosis plays a decisive role in preventing complications.
Chest wall infections cause inflammation in bone and soft tissue due to bacterial or, more rarely, fungal agents. They may progress with conditions such as osteomyelitis and abscess formation. Diagnosis is established through clinical evaluation, imaging methods, and laboratory findings, and appropriate antimicrobial treatment is planned.
Congenital chest wall deformities arise as a result of developmental anomalies present from birth, with pectus excavatum and pectus carinatum being the most common forms. In addition to cosmetic problems, these deformities may affect cardiopulmonary functions. Surgical correction provides functional improvement in selected cases.
Traumatic chest wall injuries occur as rib fractures and soft tissue damage following blunt or penetrating trauma. Respiratory failure may develop in severe cases. Early intervention, pain control, and respiratory support form the basis of the treatment process.
Where Is the Chest Wall Located in Our Body and What Functions Does It Perform?
The chest wall forms the outer skeleton and surrounding soft tissues of the area extending between the neck region and the abdominal cavity, commonly referred to as the rib cage. The boundaries of this structure are quite distinct. The ribs and spine are located at the upper and lateral portions, while the sternum, commonly known as the breastbone, is situated at the front. Its lower boundary is formed by the diaphragm, the primary muscle of respiration. The best-known function of this strong structure is to protect organs essential for survival, such as the heart, lungs, and major blood vessels, like a secure shield against external impacts. However, this protective shield is not a static structure; on the contrary, it functions as the mechanical engine of breathing.
In a healthy person, breathing is an extremely coordinated mechanical movement. During inhalation, the muscles of the chest wall contract, and the ribs move upward and outward like the handle of a bucket. This simultaneous movement expands the internal volume of the chest cavity, creating a powerful vacuum effect that allows fresh air to enter the lungs. If the flexibility of the chest wall decreases, a deformity develops in the bony structure, or nerve conduction to the muscles in this region becomes impaired, this vacuum system can no longer function adequately. As a result, the entry of fresh air into the lungs is disrupted, and respiratory distress develops.
The main components of the chest wall are:
- Ribs
- Sternum
- Spine
- Diaphragm muscle
- Respiratory muscles
- Cartilage tissues
What Are Congenital Chest Wall Deformities?
During developmental stages in the womb or rapid growth spurts in childhood, certain chest wall deformities may arise as a result of abnormal, uneven, or disproportionate growth of the cartilage connecting the ribs to the sternum. These conditions are often the result of a genetic predisposition. The most common forms involve the sternum being markedly sunken inward or protruding sharply outward. In these congenital deformities, the primary treatment objective is not limited to correcting the aesthetic appearance. The main goal is to restore the physiological space needed for the compressed heart and lungs to function comfortably and expand to their full capacity. In addition, it is extremely important to improve quality of life by eliminating the social withdrawal, postural problems, and psychological stress experienced particularly by adolescents because of this physical difference.
The most common congenital deformities are:
- Pectus excavatum
- Pectus carinatum
- Poland syndrome
What Is Pectus Excavatum (Funnel Chest) and How Is It Treated?
Pectus excavatum (Funnel Chest) refers to the inward depression of the lower part of the sternum toward the spine and is the most common deformity of the anterior chest wall. It is more commonly known among the public as funnel chest. It occurs much more frequently in boys than in girls. Depending on the depth and structure of the depression, the internal volume of the chest cavity may become significantly reduced. This narrowing directly applies mechanical pressure to the right side of the heart, making it difficult for the heart to pump blood at full capacity during exertion. It may also prevent the lungs from expanding.
The most common complaints in patients with pectus excavatum are:
- Easy fatigue
- Shortness of breath
- Palpitations
- Chest pain
Today, the gold-standard treatment approach for this condition is the minimally invasive Nuss procedure. Through small incisions approximately two centimeters long on both sides of the chest, the interior is visualized with the aid of a special camera. A steel or titanium bar, shaped in advance according to the patient’s anatomy, is carefully passed behind the depressed sternum. When this bar is rotated around its axis, it pushes the sternum outward like a powerful jack, and the chest wall immediately assumes a normal shape. To allow the bones to harden permanently and adapt to the new position, the bar is usually left in the body for several years and removed with another brief procedure when the required period has passed. In older patients whose cartilage structures have become very rigid, open surgical methods may be used in which the cartilage is removed and the bone is reshaped. In young children with a flexible chest structure, devices known as vacuum bells, which apply external negative pressure, may be preferred.
What Symptoms Occur During the Development of Pectus Carinatum (Pigeon Chest), and Is Non-Surgical Treatment Possible?
Pectus carinatum is a prominent outward and forward protrusion of the sternum and is commonly referred to as pigeon chest. It is less common than funnel chest. Although it is generally not very noticeable during childhood, it suddenly becomes prominent during the rapid growth and bone development phase of adolescence. This condition usually does not exert mechanical pressure on the heart and lungs, so complaints such as shortness of breath or easy fatigue are observed less frequently. However, this bony protrusion, which can be noticeable even beneath clothing, may cause severe loss of self-confidence, postural problems, and social isolation in young people. The protrusion may sometimes have a complex and asymmetrical structure.
The methods used in the treatment of pigeon chest are:
- Orthotic treatment
- Abramson surgery
- Modified Ravitch surgery
The first and most important step in treatment is non-surgical orthotic therapy, namely brace treatment. These custom-made braces work by applying controlled and continuous external pressure to the protruding part of the sternum. During adolescence, when bone and cartilage structures are still flexible, regular daily use of the brace can successfully restore the chest wall to its normal anatomical position. If the patient’s bone development has been completed, the chest wall has lost its flexibility, or the patient cannot adapt to brace use, the minimally invasive Abramson procedure is performed. In this method, the steel bar is passed in front of the sternum rather than behind it, fixed to the ribs on both sides, and used to press the protruding bone downward to create a flat surface.
How Are Rarer Chest Wall Differences Such as Poland Syndrome Managed?
Congenital differences of the chest wall do not always involve only the bones. In the rare condition known as Poland syndrome, absence of the chest muscle on one side of the body, underdevelopment of breast tissue in that area, missing ribs, or developmental deficiencies may occur together. Sometimes webbing of the fingers on the same side may also accompany this condition. Management of this highly complex syndrome requires extremely coordinated teamwork between thoracic surgery and plastic surgery specialists.
The main steps applied during treatment are:
- Providing skeletal support
- Performing muscle transfer
- Placing implants
- Restoring symmetry
The primary aim is to restore the missing strength of the chest wall and re-establish symmetry between both sides of the body. If missing ribs leave vital organs unprotected, the region must first be reinforced with special synthetic materials. After this protective framework has been created, broad muscle flaps taken from the back or other suitable parts of the body are transferred to the anterior chest wall. When necessary, special silicone implants are used to replace the missing tissue volume. This detailed and staged reconstruction process improves the patient’s physical appearance.
What Course Is Followed When Chest Wall Tumors Are Detected?
Chest wall tumors are masses that may arise directly from the bones, cartilage, muscles, ligaments, or fatty tissues forming the rib cage. They may also occur when cancer from nearby tissues, such as the lungs or breast, directly grows into and spreads to the chest wall. Hard or soft swellings that can be felt on the chest wall and deep, persistent pain that gradually increases in that region are among the most important symptoms of these tumors. Mapping the tumor’s structure, boundaries, and relationship with surrounding tissues is the first step in the diagnostic process.
The main diagnostic methods used are:
- Computed tomography
- Magnetic resonance imaging
- Tissue biopsy
- Positron emission tomography
A definitive cellular diagnosis is established by examining a small tissue sample taken from the mass in the laboratory. If the tumor is malignant, the unchangeable fundamental principle of surgical treatment is complete removal of the mass from the body with clear surgical margins. Because chest wall tumors tend to grow very aggressively at the local level, removing only the tumor tissue is not sufficient. A wide strip of apparently healthy tissue surrounding the tumor, together with both the healthy rib below and the healthy rib above the affected rib, must be removed in one piece along with the tumor. This wide resection principle is necessary to prevent the tumor from growing again in the same region and to ensure complete recovery.
How Is Chest Wall Reconstruction Performed After Tumor or Large Tissue Removal?
After tumor surgery performed with wide margins or the removal of a severe infection, large anatomical defects develop in the chest wall. If several consecutive ribs have been removed from this region, the area loses its physical support and becomes unprotected. This directly disrupts the mechanics of breathing. When the patient inhales, the intact chest wall expands outward normally, while the unsupported defect collapses inward. During exhalation, the opposite occurs, and the region bulges outward. This paradoxical movement makes it impossible for the lungs to oxygenate efficiently. Therefore, chest wall reconstruction, meaning rebuilding the area, is an inseparable part of the surgery.
The main reconstruction materials used are:
- Titanium plates
- Titanium bars
- Synthetic patches
- Methyl methacrylate
The aim of reconstruction is to restore the strength of the rib cage, protect the internal organs, normalize respiratory mechanics, and preserve aesthetic integrity when viewed externally. Small defects can be closed using special synthetic meshes. However, much stronger materials are needed for large bony defects. Titanium alloy bars and plates are currently among the most preferred supportive materials because of their exceptional compatibility with the human body, light weight, and resistance to bacterial adhesion. These titanium plates are screwed into the spaces where the ribs were removed, creating a new and durable artificial framework. The artificial materials are then tightly covered with living, well-vascularized muscle tissue brought from other parts of the body to ensure healing.
What Risks May Arise After Chest Trauma?
The chest wall may sustain severe damage as a result of traffic accidents, falls from height, accidents involving industrial machinery, or direct hard and sudden blows to the chest. Chest trauma accounts for a large proportion of severe injuries encountered in emergency medicine. Non-penetrating, or blunt, trauma may cause a wide variety of life-threatening injuries within the rib cage.
Common conditions resulting from blunt trauma include:
- Rib fractures
- Collapsed lung
- Bleeding into the chest cavity
- Bruising of lung tissue
A simple and isolated fracture of one or two ribs generally does not pose a life-threatening risk. However, if the sharp ends of the fractures penetrate the pleural membrane, they may cause the lung to collapse or the chest cavity to fill with blood. In addition, even if the bones flex, a severe external blow may directly crush the spongy lung tissue and impair blood oxygenation. The greatest problem in a patient with chest trauma is severe pain. Because of the pain, the patient avoids taking deep breaths and coughing. This leads to the accumulation of mucus and secretions in the lower parts of the lungs and creates a foundation for the development of secondary and highly dangerous infections such as pneumonia. For this reason, the most critical step in trauma management is providing strong pain control.
What Is Flail Chest and How Is It Surgically Stabilized?
One of the most complex and life-threatening forms of chest trauma is flail chest. It occurs when at least three consecutive ribs are each fractured in two or more places, both anteriorly and posteriorly. When this severe chain of fractures occurs, that section of the chest wall becomes completely detached from the main skeletal structure and begins to move freely during breathing. Instead of moving outward during normal inhalation, this free fractured segment collapses violently inward under the effect of negative pressure within the chest. This is called paradoxical movement and completely disables the mechanics of breathing.
The advantages provided by surgical stabilization are:
- Earlier separation from the ventilator
- Reduced pain
- Prevention of deformity
- Shortened intensive care stay
In flail chest cases, the main danger is not only the loss of stability of the bones but also the severe damage caused to the underlying lung tissue by the enormous energy responsible for the fractures. In the past, these patients were kept on ventilators in intensive care for many weeks while the bones were expected to heal under pressure applied from within. However, in modern surgical approaches, surgical stabilization has come to the forefront to shorten the period of ventilator dependence. During surgery, the fractured and inwardly collapsed ribs are identified one by one, restored to their anatomical positions, and fixed together using special titanium plates and screws. In this way, the chest wall immediately regains its previous rigidity and functional system.
What Is Thoracic Outlet Syndrome (TOS), Which Presents with Numbness and Loss of Strength in the Arms?
Thoracic Outlet Syndrome is the name given to conditions that arise when the complex nerve network extending from the base of the neck through the shoulder toward the arm, or the major artery and vein passing through this region, become compressed within the very narrow anatomical passage between the clavicle and the first rib. This narrow region is a bottleneck where all vital structures come together, much like a multilane highway entering a narrow tunnel. Excessive development of the muscles in the region, an additional congenital cervical rib, postural abnormalities, or repetitive strenuous arm movements may initiate this compression.
The types of TOS according to the compressed structure are:
- Neurogenic type
- Venous type
- Arterial type
In the vast majority of patients, the compressed structures are the nerves. In this scenario, an electric shock-like sensation beginning in the neck and radiating to the shoulder, arm, and usually the little and ring fingers, along with numbness, persistent pain, and loss of strength due to muscle wasting in the hands in advanced stages, may occur. In rarer cases, venous compression causes sudden swelling, tightness, and bluish discoloration of the arm. If the artery is compressed, coldness, paleness, absence of a pulse, and easy fatigue in the arm may be observed. During diagnosis, physical examinations involving provocative maneuvers in which the arms are moved at various angles and nerve conduction tests are of great importance.
Why Is Removal of the First Rib Important in the Treatment of Thoracic Outlet Syndrome, and Which Surgical Methods Are Preferred?
In the treatment of Thoracic Outlet Syndrome, especially in patients with nerve compression, the first step should be comprehensive physical therapy and postural rehabilitation. Through exercise programs lasting for months, the muscles pulling the shoulder into an incorrect position are stretched, the neck muscles are strengthened, and an attempt is made to widen the anatomical tunnel. However, in patients whose symptoms do not improve despite these treatments, who begin to develop muscle wasting, or who face serious risks such as vascular occlusion, a permanent solution is achieved surgically.
Commonly used surgical incision sites are:
- Armpit
- Front of the neck
- Below the clavicle
- Back region
The basic principle of surgical treatment is to widen the compressed tunnel by completely removing its floor. For this purpose, the first rib, which forms the lower boundary of the tunnel, generally needs to be completely removed surgically, and the muscles creating excessive tension in the area must be divided. The incision made through the armpit is cosmetically very successful because the scar is not externally visible. Incisions made at the front of the neck allow direct and clear visualization of the nerve network, providing an opportunity for detailed surgical decompression. The most important detail for surgical success is the complete removal of the first rib down to its root. Even the smallest bone fragment left behind may cause the disease to recur years later.
What Are the Differences Between Tietze Syndrome and Costochondritis, Which Cause Pain in the Rib Cage?
The chest wall may be affected not only by physical injuries or tumors but also by inflammatory diseases that develop insidiously and cause very severe pain. The greatest concern for patients is that sudden, stabbing pain felt on the left side of the chest may be a sign of a heart attack. After the necessary cardiological tests are performed and a heart attack is ruled out, the two most common conditions encountered are Tietze syndrome and costochondritis. Both involve inflammation of the cartilaginous joints where the ribs connect to the sternum.
The characteristics of costochondritis are:
- Involvement of multiple joints
- No visible swelling
- Pain that increases with pressure
The characteristics of Tietze syndrome are:
- Usually affecting a single joint
- Marked local swelling
- Possibility of spontaneous resolution
In costochondritis, the pain is widespread, but no external swelling is visible. Tietze syndrome is much rarer and produces a clearly noticeable, palpable, reddish swelling over the affected cartilage. The primary cause of these conditions generally cannot be clearly identified; however, repetitive minor trauma, severe coughing attacks, or strenuous physical movements may act as triggers. Their treatment is non-surgical and includes plenty of rest, warm compresses applied to the region, and anti-inflammatory medications. In resistant cases, injections into the joint provide very rapid relief.
How Are Serious Infections Such as Chest Wall Osteomyelitis Cleaned and Treated?
Osteomyelitis, which is inflammation of the bones forming the chest wall, particularly the sternum, is one of the most demanding medical conditions requiring patience and meticulous care. These deep infections generally do not occur without a cause. They most commonly begin when bacteria settle into bone tissue after open-heart surgery, open injuries to the chest, or in patients whose immune resistance is severely weakened. The bacteria impair the blood circulation of the bone, causing the tissue to die gradually and produce continuous inflammatory drainage.
The main steps in the treatment process are:
- Aggressive debridement
- Removal of necrotic tissue
- Vacuum-assisted closure
- Muscle flap application
The indisputable rule of treatment is aggressive surgical cleaning. All dead, darkened, and infected bone and soft tissues must be meticulously scraped away and removed from the body. Because antibiotics cannot penetrate deeply into dead bone tissue, medication alone is absolutely insufficient. After extensive cleaning, vacuum-assisted closure devices are used to eliminate microorganisms from the remaining wound. This special system removes all toxic drainage from the wound while encouraging fresh, clean blood flow into the area. Once the wound becomes completely sterile, it is permanently covered with highly vascularized muscle tissue brought from another part of the body.
How Are Three-Dimensional (3D) Printers and Personalized Implants Shaping Treatment in Thoracic Surgery?
One of the areas where medical science integrates most effectively with engineering technology is complex chest wall surgery. In previous years, for very large chest wall defects, standard industrial metals were bent and reshaped during surgery in an attempt to adapt them to the patient’s anatomy. Today, thanks to the concept of completely personalized treatment, these difficulties and mismatches have been eliminated.
The main advantages of personalized implants are:
- Millimetric compatibility
- Shorter surgical duration
- Biocompatibility
- High durability
Days before the patient undergoes surgery, highly detailed CT slices are obtained. These images are transferred to high-capacity computers, where an exact three-dimensional map of the patient’s healthy and diseased bone structure is created. Engineers digitally design artificial bones that will fit into the area of the diseased section to be removed and perfectly replicate the symmetry of the healthy side of the body. Then, using three-dimensional printers, these implants are produced from pure titanium powder with micron-level precision. The resulting parts fit into the place of the removed bones during surgery with zero error. This technological revolution enables patients to regain respiratory function much more rapidly.
What Advantages Do Robotic Surgery Systems Offer in Chest Wall Operations?
The interior of the rib cage is a difficult, very narrow, and delicate anatomical region because of the vital organs and vascular networks it contains. Flawless precision is particularly necessary when removing tumors located immediately adjacent to the heart, major vessels, or delicate nerve networks. Robotic-assisted surgery systems, whose range of use has expanded rapidly in recent years, have paved the way for much safer operations in confined spaces.
The technical advantages offered by robotic surgery are:
- Three-dimensional imaging
- Tremor-free arms
- High mobility
- Ability to maneuver in narrow spaces
In robotic systems, the surgeon sits at a high-technology console in the operating room instead of standing directly beside the patient. Cameras inserted through centimeter-sized small openings in the patient’s chest display the interior in three dimensions with tenfold magnification. The robotic arms controlled from the console completely eliminate the natural tremor of the human hand. Moreover, these miniature arms can move comfortably, place sutures, and separate tissues even at very narrow angles that the human wrist cannot achieve. Because there is no need to make a long incision across the chest or force the ribs apart with rigid instruments, patients experience minimal postoperative pain and return to their daily lives much more quickly.
Frequently Asked Questions
- Earlier separation from the ventilator
- Reduced pain
- Prevention of deformity
- Shortened intensive care stay
In flail chest cases, the main danger is not only the loss of stability of the bones but also the severe damage caused to the underlying lung tissue by the enormous energy responsible for the fractures. In the past, these patients were kept on ventilators in intensive care for many weeks while the bones were expected to heal under pressure applied from within. However, in modern surgical approaches, surgical stabilization has come to the forefront to shorten the period of ventilator dependence. During surgery, the fractured and inwardly collapsed ribs are identified one by one, restored to their anatomical positions, and fixed together using special titanium plates and screws. In this way, the chest wall immediately regains its previous rigidity and functional system.
What Is Thoracic Outlet Syndrome (TOS), Which Presents with Numbness and Loss of Strength in the Arms?
Thoracic Outlet Syndrome is the name given to conditions that arise when the complex nerve network extending from the base of the neck through the shoulder toward the arm, or the major artery and vein passing through this region, become compressed within the very narrow anatomical passage between the clavicle and the first rib. This narrow region is a bottleneck where all vital structures come together, much like a multilane highway entering a narrow tunnel. Excessive development of the muscles in the region, an additional congenital cervical rib, postural abnormalities, or repetitive strenuous arm movements may initiate this compression.
The types of TOS according to the compressed structure are:
- Neurogenic type
- Venous type
- Arterial type
In the vast majority of patients, the compressed structures are the nerves. In this scenario, an electric shock-like sensation beginning in the neck and radiating to the shoulder, arm, and usually the little and ring fingers, along with numbness, persistent pain, and loss of strength due to muscle wasting in the hands in advanced stages, may occur. In rarer cases, venous compression causes sudden swelling, tightness, and bluish discoloration of the arm. If the artery is compressed, coldness, paleness, absence of a pulse, and easy fatigue in the arm may be observed. During diagnosis, physical examinations involving provocative maneuvers in which the arms are moved at various angles and nerve conduction tests are of great importance.
Why Is Removal of the First Rib Important in the Treatment of Thoracic Outlet Syndrome, and Which Surgical Methods Are Preferred?
In the treatment of Thoracic Outlet Syndrome, especially in patients with nerve compression, the first step should be comprehensive physical therapy and postural rehabilitation. Through exercise programs lasting for months, the muscles pulling the shoulder into an incorrect position are stretched, the neck muscles are strengthened, and an attempt is made to widen the anatomical tunnel. However, in patients whose symptoms do not improve despite these treatments, who begin to develop muscle wasting, or who face serious risks such as vascular occlusion, a permanent solution is achieved surgically.
Commonly used surgical incision sites are:
- Armpit
- Front of the neck
- Below the clavicle
- Back region
The basic principle of surgical treatment is to widen the compressed tunnel by completely removing its floor. For this purpose, the first rib, which forms the lower boundary of the tunnel, generally needs to be completely removed surgically, and the muscles creating excessive tension in the area must be divided. The incision made through the armpit is cosmetically very successful because the scar is not externally visible. Incisions made at the front of the neck allow direct and clear visualization of the nerve network, providing an opportunity for detailed surgical decompression. The most important detail for surgical success is the complete removal of the first rib down to its root. Even the smallest bone fragment left behind may cause the disease to recur years later.
What Are the Differences Between Tietze Syndrome and Costochondritis, Which Cause Pain in the Rib Cage?
The chest wall may be affected not only by physical injuries or tumors but also by inflammatory diseases that develop insidiously and cause very severe pain. The greatest concern for patients is that sudden, stabbing pain felt on the left side of the chest may be a sign of a heart attack. After the necessary cardiological tests are performed and a heart attack is ruled out, the two most common conditions encountered are Tietze syndrome and costochondritis. Both involve inflammation of the cartilaginous joints where the ribs connect to the sternum.
The characteristics of costochondritis are:
- Involvement of multiple joints
- No visible swelling
- Pain that increases with pressure
The characteristics of Tietze syndrome are:
- Usually affecting a single joint
- Marked local swelling
- Possibility of spontaneous resolution
In costochondritis, the pain is widespread, but no external swelling is visible. Tietze syndrome is much rarer and produces a clearly noticeable, palpable, reddish swelling over the affected cartilage. The primary cause of these conditions generally cannot be clearly identified; however, repetitive minor trauma, severe coughing attacks, or strenuous physical movements may act as triggers. Their treatment is non-surgical and includes plenty of rest, warm compresses applied to the region, and anti-inflammatory medications. In resistant cases, injections into the joint provide very rapid relief.
How Are Serious Infections Such as Chest Wall Osteomyelitis Cleaned and Treated?
Osteomyelitis, which is inflammation of the bones forming the chest wall, particularly the sternum, is one of the most demanding medical conditions requiring patience and meticulous care. These deep infections generally do not occur without a cause. They most commonly begin when bacteria settle into bone tissue after open-heart surgery, open injuries to the chest, or in patients whose immune resistance is severely weakened. The bacteria impair the blood circulation of the bone, causing the tissue to die gradually and produce continuous inflammatory drainage.
The main steps in the treatment process are:
- Aggressive debridement
- Removal of necrotic tissue
- Vacuum-assisted closure
- Muscle flap application
The indisputable rule of treatment is aggressive surgical cleaning. All dead, darkened, and infected bone and soft tissues must be meticulously scraped away and removed from the body. Because antibiotics cannot penetrate deeply into dead bone tissue, medication alone is absolutely insufficient. After extensive cleaning, vacuum-assisted closure devices are used to eliminate microorganisms from the remaining wound. This special system removes all toxic drainage from the wound while encouraging fresh, clean blood flow into the area. Once the wound becomes completely sterile, it is permanently covered with highly vascularized muscle tissue brought from another part of the body.
How Are Three-Dimensional (3D) Printers and Personalized Implants Shaping Treatment in Thoracic Surgery?
One of the areas where medical science integrates most effectively with engineering technology is complex chest wall surgery. In previous years, for very large chest wall defects, standard industrial metals were bent and reshaped during surgery in an attempt to adapt them to the patient’s anatomy. Today, thanks to the concept of completely personalized treatment, these difficulties and mismatches have been eliminated.
The main advantages of personalized implants are:
- Millimetric compatibility
- Shorter surgical duration
- Biocompatibility
- High durability
Days before the patient undergoes surgery, highly detailed CT slices are obtained. These images are transferred to high-capacity computers, where an exact three-dimensional map of the patient’s healthy and diseased bone structure is created. Engineers digitally design artificial bones that will fit into the area of the diseased section to be removed and perfectly replicate the symmetry of the healthy side of the body. Then, using three-dimensional printers, these implants are produced from pure titanium powder with micron-level precision. The resulting parts fit into the place of the removed bones during surgery with zero error. This technological revolution enables patients to regain respiratory function much more rapidly.
What Advantages Do Robotic Surgery Systems Offer in Chest Wall Operations?
The interior of the rib cage is a difficult, very narrow, and delicate anatomical region because of the vital organs and vascular networks it contains. Flawless precision is particularly necessary when removing tumors located immediately adjacent to the heart, major vessels, or delicate nerve networks. Robotic-assisted surgery systems, whose range of use has expanded rapidly in recent years, have paved the way for much safer operations in confined spaces.
The technical advantages offered by robotic surgery are:
- Three-dimensional imaging
- Tremor-free arms
- High mobility
- Ability to maneuver in narrow spaces
In robotic systems, the surgeon sits at a high-technology console in the operating room instead of standing directly beside the patient. Cameras inserted through centimeter-sized small openings in the patient’s chest display the interior in three dimensions with tenfold magnification. The robotic arms controlled from the console completely eliminate the natural tremor of the human hand. Moreover, these miniature arms can move comfortably, place sutures, and separate tissues even at very narrow angles that the human wrist cannot achieve. Because there is no need to make a long incision across the chest or force the ribs apart with rigid instruments, patients experience minimal postoperative pain and return to their daily lives much more quickly.
Frequently Asked Questions
Prof. Dr. Alper Fındıkcıoğlu graduated from Istanbul University Faculty of Medicine and completed his thoracic surgery residency at Dr. Siyami Ersek Hospital. He began his academic career at Başkent University in 2005; he received the title of associate professor in 2014 and professor in 2022. He has extensive experience in lung cancer, chest wall diseases, and minimally invasive surgery. Since 2024, he has been continuing his professional work at Acıbadem Hospital.
