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The first question every orthopedic surgery patient asks is the same: "When will I get back to normal?" The answer varies depending on the type of surgery, the patient's age, and overall health. However, the fundamental principles of recovery are universal. This guide explains what to expect during the first six weeks after surgery and how you can accelerate your healing.

The first 48 hours are the most critical period. Swelling and pain at the surgical site are normal. Ice application (20 minutes on, 20 minutes off) is the most effective way to control swelling. Take your prescribed pain medications on schedule — it is much harder to control pain once it intensifies than to prevent it from the start.

The most common mistake with wound care is unnecessarily opening the dressing. Keep the surgical wound clean and dry until your first follow-up appointment. Slight bleeding through the dressing may be normal, but widespread redness, increasing warmth, or foul-smelling drainage warrants an immediate call to your doctor.

During the first week after surgery, keeping the operated area elevated above heart level significantly reduces swelling. If you had knee or foot surgery, place two pillows under your leg while lying down. Sleeping after shoulder surgery can be challenging — sleeping in a semi-reclined position supported by pillows is more comfortable in the early days.

The timing for starting physical therapy varies by surgery type. Some procedures allow gentle movements the next day, while others require four to six weeks of waiting. Follow your doctor's protocol precisely — starting early does not speed up recovery; rather, it increases the risk of complications.

Nutrition is the overlooked but most important component of recovery. Increase your protein intake: eggs, fish, chicken, legumes, and dairy products support tissue repair. Vitamin C (citrus fruits, bell peppers, kiwi) accelerates collagen synthesis. Adequate water consumption improves blood circulation, enhancing oxygen and nutrient delivery to the healing site.

Smoking is the greatest enemy of post-surgical recovery. Nicotine constricts blood vessels, reducing blood flow to the surgical area. Studies show that bone healing is twice as slow in smokers. Quitting smoking for at least six weeks before and after surgery is strongly recommended.

From the sixth week onward, most patients can largely return to daily activities. However, full recovery may take three to six months. Be patient — your body will give you signals. If pain, swelling, or limited movement persists, do not skip your follow-up appointments.

Tennis elbow (lateral epicondylitis) is a pain condition caused by overuse of the tendons on the outside of the elbow. Despite its name, the vast majority of people who experience this problem don't play tennis. Office workers using computer mice, carpenters, chefs, musicians, and anyone performing repetitive wrist movements are at risk.

Symptoms usually begin gradually. You first notice mild tenderness on the outside of the elbow. Over time, this pain appears even during everyday movements like turning a doorknob, lifting a cup, or shaking hands. Pain radiating down the forearm toward the wrist is common. Morning stiffness and decreased grip strength are typical findings.

Diagnosis is usually made through physical examination. Pain when your doctor presses on the outer bony prominence of the elbow and pain shooting to the elbow when you force your wrist backward confirms the diagnosis. Ultrasound or MRI may be ordered to assess the extent of tendon damage and rule out other conditions.

The first step of treatment is rest — but this doesn't mean complete immobilization. Limit activities that increase pain, but continue normal hand use. Ice application and anti-inflammatory medications control pain during the acute phase. A tennis elbow brace reduces the load on the tendon, providing comfort during daily activities.

Physical therapy is the most effective treatment for tennis elbow. Eccentric exercises (controlled lowering movements with weight) strengthen the tendon structure and trigger healing. A physical therapy program typically lasts six to twelve weeks. More than eighty percent of patients recover with this conservative treatment.

For cases that don't respond to conservative treatment, PRP (platelet-rich plasma) injection may be considered. PRP is a growth factor concentrate prepared from the patient's own blood, aimed at accelerating tendon healing. Cortisone injection can reduce pain in the short term, but since it weakens tendon structure over time, it is no longer recommended as a first-line treatment.

Surgery is considered for approximately five percent of patients who don't improve despite all conservative treatments over six to twelve months. The damaged tendon tissue is cleaned through arthroscopic or open surgery. Full return to activity is expected within three to six months after surgery.

The most effective way to prevent tennis elbow is to take regular breaks during repetitive wrist movements. If you use a computer, an ergonomic mouse and wrist support will pay for themselves. Adding simple forearm strengthening exercises to your daily routine significantly reduces the risk of recurrence.

An ankle sprain is an injury that nearly everyone experiences at least once in their lifetime. Stepping off a curb, going down stairs, or suddenly changing direction during sports — ankle ligaments can be strained at any unexpected moment. Most sprains heal with home care, but some situations require medical evaluation.

Understanding the grade of sprain is important. In a Grade 1 sprain, ligaments are stretched but not torn: there is mild swelling and pain, and you can walk. In a Grade 2 sprain, there is a partial ligament tear: significant swelling, bruising, and difficulty walking. A Grade 3 sprain is a complete ligament rupture: severe swelling, bruising, inability to bear weight, and noticeable looseness in the joint.

Situations that warrant an emergency visit include: inability to bear any weight on your foot, visible deformity, numbness or tingling, very rapidly increasing swelling, or a history of multiple sprains to the same ankle. These signs may indicate a fracture or serious ligament damage.

For home care, follow the RICE protocol: Rest — avoid painful activities. Ice — apply ice for twenty minutes every two to three hours during the first 48 hours. Compression — wrap with an elastic bandage to control swelling. Elevation — raise your foot above heart level.

Grade 1 sprains typically heal in one to three weeks. Grade 2 sprains require four to six weeks, while Grade 3 sprains can take up to three months. Early resolution of pain does not mean healing is complete — ligament tissue needs time to regain full strength.

The most important cause of recurrent sprains is inadequate rehabilitation of the initial injury. When ligament laxity and muscle weakness remain, chronic ankle instability develops. Balance and proprioception exercises (single-leg standing, balance board) after every sprain are the most effective way to prevent future injuries.

For patients who have developed chronic instability — where the ankle constantly feels like it's "giving way" and conservative treatment has been insufficient — arthroscopic ligament repair may be considered. After this surgery, the vast majority of patients can return to sports within six months.

Osteoporosis is a condition where bones lose density and strength, becoming fragile. According to World Health Organization data, one in three women and one in five men over fifty will experience an osteoporosis-related fracture at some point. These fractures typically occur in the hip, spine, and wrist — and the consequences can be far more serious than a simple break.

Bone loss is called a "silent disease" because it progresses painlessly. Most patients learn they have osteoporosis only when they experience a fracture. Symptoms like height loss, back pain, and stooped posture typically appear when the disease has already progressed. This is why knowing risk factors and getting early screening is vital.

Major risk factors include: post-menopausal period (estrogen decline accelerates bone loss), family history of osteoporosis, thin and small body frame, smoking, excessive alcohol consumption, long-term corticosteroid use, vitamin D deficiency, and sedentary lifestyle. If you have more than one of these risk factors, a bone density measurement (DEXA scan) is recommended.

The cornerstone of bone health protection is regular exercise. Weight-bearing exercises like walking, climbing stairs, and light weightlifting stimulate bone formation. Aim for at least one hundred and fifty minutes of moderate-intensity exercise per week. An important note: non-weight-bearing exercises like swimming and cycling, while beneficial for overall health, have limited direct effect on bone density.

Calcium and vitamin D are the essential building blocks of bone health. Adults should consume one thousand to twelve hundred milligrams of calcium daily — milk, yogurt, cheese, leafy green vegetables, and almonds are good sources. Vitamin D enables calcium absorption from the intestine; sunlight is the most natural source, but vitamin D deficiency is extremely common even in sunny countries. Having your vitamin D levels checked with a blood test and supplementing if necessary is recommended.

Fall prevention is the most practical way to reduce fracture risk in patients with osteoporosis. At home, secure carpet edges, install grab bars in bathrooms, ensure good lighting, and wear non-slip shoes. Balance exercises (such as tai chi) have been shown to reduce fall risk by up to forty-five percent.

If osteoporosis is diagnosed, treatment options are available. Bisphosphonates (alendronate, risedronate) are the most common drugs that slow bone breakdown. Newer agents like denosumab and teriparatide are also used. Drug therapy, when combined with lifestyle changes, can reduce fracture risk by up to fifty percent. Develop your treatment plan together with your doctor.

Prolonged sitting is an activity the human body was not designed for. More than eighty percent of workers who spend eight to ten hours a day at a desk experience back pain at some point in their lives. Back pain is one of the most common reasons for lost work productivity and doctor visits — yet most cases are preventable.

In a seated position, the load on lumbar vertebrae is forty percent greater than when standing. A forward-leaning, slumped posture increases this load even further. Over time, the discs between vertebrae lose water under pressure, muscles weaken, and the spinal structure begins to deteriorate. This process can set the stage for disc herniation, facet joint arthrosis, or spinal stenosis over the years.

Correct sitting posture is where everything begins. Your hips should be at the same level as or slightly above your knees. Use a support that maintains the natural lordotic curve in your lower back (lumbar support). Your screen should be at eye level, keyboard at elbow level. Your feet should rest flat on the floor — not dangling.

Every thirty to forty-five minutes, stand up and walk or stretch for two minutes. These short breaks improve disc nutrition, deliver oxygen to muscles, and reset postural stress. Setting a phone reminder is a simple but effective method. Making some of your meetings standing meetings is also beneficial.

Four basic exercises you can do at the office make a significant difference in preventing back pain. First: seated trunk rotation — keeping your back straight, rotate your torso right and left, hold for ten seconds. Second: standing hip flexor stretch — step forward, feel the stretch in the front of the back leg's hip. Third: cat-cow — holding onto your desk, round your back then arch it. Fourth: wall squat — back against the wall, lower until knees reach ninety degrees, hold for thirty seconds.

If your back pain lasts longer than two weeks, if there is pain or numbness radiating to the leg, if you have urinary control issues, or if pain wakes you at night, be sure to see an orthopedic specialist. These symptoms may indicate disc herniation, nerve compression, or rarer conditions, and early diagnosis directly affects treatment success.

Back pain complaints increased notably during the remote work era. Working at dining tables or on couches, non-ergonomic chairs, and reduced movement are the main culprits. When setting up a home office, an adjustable chair and monitor riser are the two most valuable investments. Your back health is worth far more than the price of a chair.

Children move, fall, and fractures can happen — it's a natural part of growing up. More than fifty percent of childhood fractures occur during play and sports. However, childhood fractures show fundamental differences from adult fractures, and knowing these differences is important for parents.

Children's bones are more flexible and covered with a thicker periosteum (bone membrane) than adult bones. This is why children experience special fracture types called "greenstick fractures," where one side of the bone breaks while the other side bends. This flexibility is an advantage — childhood fractures generally heal faster and better.

Growth plate (epiphyseal plate) injuries are the most sensitive issue in childhood fractures. Growth plates are cartilage structures at the ends of long bones that enable bone lengthening. If damage to these areas is not properly treated, it can lead to growth disturbance and limb length inequality. If your child has pain, swelling, and limited movement around a joint, it must be evaluated with X-rays.

Most childhood fractures do not require surgery. Immobilization with a cast or splint is usually sufficient thanks to the high healing capacity of children's bones. Even fractures that have healed at certain angles can self-correct over time — this "remodeling" ability is unique to children and is stronger at younger ages.

Cast care can be challenging for parents. Never insert pencils, sticks, or similar objects inside the cast — this can cause skin damage and infection. Keep the cast dry; protect it with a plastic bag during bathing. For itching under the cast, blowing cool air (hair dryer on cool setting) can provide relief. If you notice blue discoloration, swelling, numbness, or paleness in the fingers, seek immediate medical attention — these signs may indicate circulation problems from a tight cast.

Situations requiring surgery include intra-articular fractures, significantly displaced growth plate injuries, and open fractures. Implants used in pediatric orthopedics (flexible titanium nails, K-wires) are usually removed with a minor procedure once healing is complete.

The timing for returning to sports after a fracture heals is determined by the location and type of fracture. Muscle weakness and joint stiffness are expected findings after cast removal — a few weeks of exercise program corrects this. Don't push your child to return to sports early, but don't unnecessarily restrict them either — children feel pain and generally know their own limits well.

A final note: if your child experiences recurrent fractures (more than two within two years), bone metabolism should be evaluated. Vitamin D deficiency, calcium insufficiency, or rare metabolic bone diseases may be the underlying cause.

The most critical factor determining the outcome of joint replacement surgery is placing the implant at the correct angle and in the correct position. In the traditional method, the surgeon makes the bone cuts during surgery relying on guide instruments and personal experience. Robotic surgery adds computer-assisted planning and the precision of a robotic arm to this process. The difference is like that between a carpenter measuring by eye and using a laser measuring tool.

Before robotic replacement surgery, computed tomography (CT) images of the patient’s knee or hip are taken. From these images, a patient-specific three-dimensional bone model is created, and the surgeon plans exactly where and at what angle the implant will be placed, down to the millimeter, before the operation. By the time the operating room is entered, the plan is ready — the surgeon now works with calculated values rather than estimates.

During surgery, the robotic arm guides the surgeon’s hand and prevents deviations from the predetermined plan. The robot does not move independently; it draws a safety boundary for the surgeon. If the bone cut starts to go in a different direction than planned, the system stops automatically. This way, implant components are placed at the planned angle with an average deviation of about one degree. In the traditional method, this deviation can reach three to five degrees.

The most pronounced clinical advantage of robotic surgery is soft-tissue preservation. Because the system allows only the necessary amount of bone to be cut, the risk of damage to the surrounding muscle, tendon, and ligament structures is reduced. In practical terms this means less postoperative pain, less swelling, and earlier mobilization. Published comparative studies report that the hospital stay for robotic knee replacement patients is shortened by about one day on average, and that knee flexion in the first six weeks is significantly better than with the traditional method.

In hip replacement, the robotic system makes a particular difference in placement of the acetabular component (the cup). The angle of the cup directly affects the implant’s dislocation risk and long-term wear. Robotic planning optimizes this angle to the patient’s anatomy and minimizes postoperative leg-length inequality. Patients feel this difference while walking and climbing stairs — the knee or hip feels more "natural."

From the patient’s perspective, the surgical process is not very different from traditional replacement. General or spinal anesthesia is used, and the operation takes about ten to twenty minutes longer. After surgery, the patient stands with a walker the same day or the next day. In knee replacement, full flexion is targeted in six to eight weeks; in hip replacement, most patients return to normal life within two to three months.

Is robotic surgery suitable for every patient? Technically, most primary (first-time) knee and hip replacement candidates can benefit from the robotic system. However, in patients with severe bone deformity, those requiring revision surgery, or those with existing metal implants in the surgical area, robotic planning may be limited. The most appropriate method for your situation should be determined together with your surgeon.

The robotic system is a tool; what determines the success of the surgery is still the surgeon’s experience, correct patient selection, and postoperative rehabilitation. The robotic arm enhances the surgeon’s skill but does not replace it. If you are considering replacement surgery, evaluating both your surgeon’s experience and the technology used together is the soundest approach.

Ankle arthroscopy is a minimally invasive operation in which a camera and fine surgical instruments are inserted into the joint through two or three small incisions (portals). The camera projects the inside of the joint onto a screen, and the surgeon makes the diagnosis and performs the necessary intervention under this view. Its main advantages over open surgery are less tissue damage, less pain, and faster recovery.

Arthroscopy is most often indicated in the following conditions: intra-articular loose bodies (detached cartilage or bone fragments), anterior or posterior impingement syndrome, synovitis (inflammation of the joint lining), osteochondral lesions (cartilage damage), and intra-articular adhesions. In patients with chronic ankle pain who cannot be definitively diagnosed by MRI, arthroscopy is used as both a diagnostic and a therapeutic tool.

Anterior impingement syndrome causes pain and a pinching sensation at the front of the ankle when bending it upward (dorsiflexion). It is usually caused by bony outgrowths (osteophytes) or scar tissue forming on the front of the joint after repeated sprains. Because it is common in football players, it is also called "footballer’s ankle." Arthroscopic debridement removes these bony outgrowths and scar tissue; in more than ninety percent of patients, pain decreases significantly.

Posterior impingement, on the other hand, is pain at the back of the heel when bending the ankle downward (plantar flexion). It is common in ballet dancers and in football players who kick with the toe. The presence of an accessory bone called the os trigonum frequently accompanies this condition. With an arthroscopic posterior approach, the os trigonum is removed and the tissues causing the impingement are cleaned. Return to sports after this surgery is usually possible in six to eight weeks.

The operation is performed under general or spinal anesthesia and takes an average of thirty to forty-five minutes. The patient is usually discharged the same day. For the first two weeks, the patient walks with crutches bearing partial weight on the foot. From the second week, dressings are removed and joint range-of-motion exercises begin. By the fourth week, most patients return to normal walking.

The situations in which arthroscopy is preferred over open surgery are clear: if the intra-articular pathology is limited in size, if soft-tissue repair is not required, and if bone correction (osteotomy) is not planned, arthroscopy is the first choice. However, in patients with large osteochondral defects, advanced arthritis, or severe axis deformity, open surgery or combined approaches may be necessary.

The complication rate after arthroscopy is low — below three percent in published series. The most common problem is temporary numbness due to superficial nerve irritation at the portal site, which usually resolves on its own within a few weeks. Infection and joint stiffness are rare. Early movement after surgery and adherence to the physical therapy program are the keys to a successful outcome.

Haglund deformity is a painful condition that arises when a prominent bony outgrowth at the back-upper corner of the heel bone (calcaneus) rubs against the Achilles tendon and the retrocalcaneal bursa. It is also known as a "pump bump" — a name that comes from the way high-heeled shoes with a stiff back edge press on this area and trigger the complaints. It is more common in women than in men and is often present in both feet.

The basis of the condition lies in the anatomy of the heel bone. In some people, the back surface of the calcaneus is naturally more prominent, and this outgrowth causes mechanical irritation at the point where the Achilles tendon contacts the bone. Over time, the bursa (fluid sac) between the tendon and bone becomes inflamed (retrocalcaneal bursitis), and degeneration begins on the surface of the Achilles tendon where it contacts the bone. If this degeneration is left untreated, the tendon weakens and the risk of a tear increases.

Typical symptoms are swelling, redness, and pain at the back of the heel that increases especially after putting on shoes. Pain becomes pronounced with climbing stairs, walking uphill, and running. On palpation there is tenderness over the outgrowth at the back of the heel. Diagnosis is made with a lateral (side-view) foot X-ray; MRI is requested to assess the extent of degeneration in the Achilles tendon.

Conservative treatment is the first step and controls symptoms in about sixty percent of patients. It consists of using a heel pad or silicone heel cup, shoes without a stiff back edge, ice application, anti-inflammatory medications, and eccentric Achilles tendon stretching exercises. If improvement is not achieved within six months despite these measures, surgical options are evaluated.

The goal of surgical treatment is to remove the prominent bony outgrowth and clean out the inflamed bursa. The endoscopic (closed) posterior approach has become the gold standard in recent years. Through two small incisions, a camera and a motorized shaver (burr) are placed behind the joint; the bony outgrowth is shaved and corrected, and the bursa is cleaned. Compared with open surgery, wound problems are far less common, recovery time is shorter, and the cosmetic result is superior.

After surgery, the patient walks for the first two weeks in a special boot or splint without putting pressure on the heel. From the second week, gradual weight bearing begins, and by the fourth week full weight is borne and normal walking resumes. Return to running is usually possible between the eighth and twelfth weeks. If there is degeneration in the Achilles tendon, the recovery period may extend a few weeks longer.

The success rate after surgery is above ninety percent. In cases that have been neglected for a long time and have developed significant Achilles tendon degeneration, additional tendon debridement or repair may be required. For this reason, patients who do not respond to conservative treatment are advised not to delay surgery too long — early intervention both reduces the scope of the operation and speeds recovery.

The talus bone forms the lower part of the ankle joint, and its surface is covered by a thin layer of cartilage. This cartilage ensures that body weight is distributed evenly across the joint surface while walking and running. An osteochondral lesion is damage to this cartilage layer and the bone immediately beneath it. Even if the damaged area is small, the functional consequences can be serious — because cartilage cannot regenerate itself, untreated lesions cause early arthritis in the ankle over time.

About seventy percent of lesions develop after an ankle sprain or fracture. During a sprain, the talus collides with the tibia or fibula, and the cartilage and underlying bone are crushed or detached. In the remaining thirty percent there is no history of trauma; in these cases, a disturbance in the bone’s blood supply (an avascular cause) is held responsible. The most commonly affected areas are the medial (inner) and lateral (outer) corners of the talus.

Lesions are classified in four stages. Stage 1: bruising of the subchondral bone, with the cartilage surface intact. Stage 2: partial separation of the cartilage. Stage 3: the cartilage and the underlying bone fragment have completely separated but remain in place. Stage 4: the fragment has detached and circulates within the joint as a loose body. The stage plays a key role in determining the treatment method.

In stage 1 and 2 lesions, conservative treatment is tried first. Immobilization with a boot or cast without weight bearing is applied for six weeks, with the goal of allowing the subchondral bone to heal. While the success rate of conservative treatment is above fifty percent in stage 1 lesions, surgery is almost always necessary in stage 3 and 4 lesions.

The most commonly applied surgical technique is the arthroscopic microfracture method. After the damaged cartilage in the lesion area is cleaned, millimeter-sized holes are drilled into the underlying bone. Bone marrow cells and growth factors seep through these holes and fill the area with fibrocartilage (scar cartilage). In lesions smaller than one square centimeter, the success rate is above eighty percent.

In larger lesions (over one square centimeter), or in cases of failure after microfracture, advanced techniques come into play. In the OATS (osteochondral autograft transfer system) method, a healthy cartilage-bone cylinder taken from the knee is transplanted to the lesion area. Bone marrow concentrate applications supported by a collagen or synthetic scaffold are also among current options. Which technique to apply is determined by the size and location of the lesion and the patient’s activity level.

Postoperative rehabilitation varies by technique. After microfracture, the patient walks with partial weight for six to eight weeks, and full weight bearing begins at the twelfth week. After OATS this period is somewhat longer. Return to sports is usually possible between the fourth and sixth months. Adherence to the physical therapy protocol is critical — early loading disrupts cartilage healing, while delayed movement leads to joint stiffness.

The most important message about talus osteochondral lesions is this: if pain and swelling persist for weeks after an ankle sprain, do not settle for a diagnosis of "just a sprain." Have an MRI to assess whether there is cartilage damage. Early diagnosis increases the chance of a better outcome with simpler treatment.

The shoulder joint is the most mobile joint in the body — our ability to move the arm freely in every direction is thanks to this joint’s design. But the price of this freedom of movement is loss of stability. The shoulder is like a golf ball resting on a tee: because the bony structure is shallow, stability depends largely on the labrum (joint lip), capsule, and ligaments. When these structures are damaged in a first dislocation, the door is opened to recurrent dislocations.

A Bankart lesion is the detachment of the labrum (joint lip) at the front-lower part of the shoulder joint from the glenoid bone, and it is the most common structural damage seen after a traumatic shoulder dislocation. The labrum deepens the joint socket by up to fifty percent, contributing to stability. When this structure tears, the socket becomes shallower and the humeral head slips forward much more easily. The rate of detecting a Bankart lesion by MRI after a first dislocation is above eighty percent.

The risk of recurrence is directly related to the patient’s age. While recurrent dislocation develops in seventy to ninety percent of patients who have their first dislocation under the age of twenty, this rate falls below ten percent over the age of forty. The reason the recurrence risk is so high in young athletes is both their high activity level and the difficulty of stable spontaneous healing with scar tissue, given the elastic nature of their soft tissues.

Every recurrent dislocation causes additional damage to the joint. Wear and bone loss develop in the glenoid (socket) and the humeral head. The Hill-Sachs lesion, a depression defect on the back-upper part of the humeral head, deepens with each dislocation. When bone loss exceeds a certain threshold, soft-tissue repair alone is not enough and bone grafting procedures are required. For this reason, postponing surgery in patients with recurrent dislocations is usually a disadvantage.

Arthroscopic Bankart repair is the standard surgical treatment for recurrent shoulder dislocation. Through three or four small incisions, a camera and special suturing instruments are placed into the joint. The detached labrum is reattached to the glenoid bone with the help of suture anchors (mini buttons screwed into the bone), and the loosened capsule is tightened and sutured. The operation usually takes one to one and a half hours, and the patient can be discharged the same day.

If glenoid bone loss is above twenty-five percent, the failure rate of arthroscopic Bankart repair increases. In this case, the Latarjet procedure is preferred. In the Latarjet operation, a block of bone taken from the coracoid process is screwed onto the front of the glenoid to compensate for the bone loss, and additional dynamic stability is provided by a tendon transfer. The procedure is chosen by calculating the bone-loss ratio with CT.

After surgery, the arm is kept in a sling for four to six weeks. In the first six weeks, joint stiffness is prevented with passive movement exercises. From the sixth week, active movements begin, and from the third month, strengthening exercises. Return to contact sports is usually evaluated at the sixth month. The recurrence rate after arthroscopic Bankart repair is between five and ten percent; the return-to-sport rate is above ninety percent.

What should you do after a shoulder dislocation? Once the first dislocation has been reduced, be sure to have a shoulder MRI to assess labral and bone damage. If you are a young and active patient, you should seriously consider surgical treatment even after the first dislocation — each recurrent dislocation makes the surgery harder and its outcome less predictable.

Knee arthroscopy is a closed operation performed by inserting a camera and fine surgical instruments into the knee joint through two or three small incisions. It is one of the most commonly performed surgical procedures in orthopedics, and it is possible to both identify and treat many intra-articular problems in a single session. The operation is usually done as a day case — the patient returns home the same day.

The main indications for knee arthroscopy are: repair or partial trimming of meniscus tears, removal of intra-articular loose bodies, treatment of cartilage damage (microfracture, debridement), cleaning of synovitis (inflammation of the joint lining), treatment of plica syndrome, and irrigation in the case of joint infection (septic arthritis). Ligament reconstructions are also performed with arthroscopic assistance but are planned as a separate operation.

Before surgery, intra-articular pathology is evaluated with MRI. However, MRI does not always give a definitive diagnosis — especially in cartilage damage and small meniscus tears, there can be discrepancies between MRI findings and arthroscopic findings. For this reason, during surgery the surgeon systematically evaluates the entire joint, and pathologies not visible on MRI are also treated.

The operation is performed under spinal or general anesthesia and takes an average of thirty to forty-five minutes. Two portals (each about five millimeters) are usually made at the front of the knee. A camera is inserted through one and surgical instruments through the other. At the end of the operation, sutures are placed or the incisions are closed with steri-strips. A drain is usually not needed.

The recovery process varies according to the procedure performed. After a simple meniscus trimming, the patient can walk the next day bearing full weight and returns to daily activities within two to four weeks. If a meniscus repair was performed, the patient walks with partial weight for four to six weeks and full recovery takes three to four months. In cartilage microfracture procedures, the patient walks with crutches for six to eight weeks.

For the first three days after surgery, the RICE protocol (rest, ice, compression bandage, elevation) is applied. Starting quadriceps muscle exercises immediately prevents joint stiffness and muscle wasting. Straight-leg raises and isometric quadriceps contractions are the simplest but most effective early-period exercises. The physical therapy program usually begins two to four weeks after surgery.

Knee arthroscopy is an operation with a low complication rate — the rate of serious complications is below one percent. The most common problems are intra-articular swelling, temporary pain, and numbness at the portal site. Deep vein thrombosis and infection are rare but complications to watch for. If pain, swelling, or fever develops in the calf after surgery, consult your doctor immediately.

Is arthroscopy the solution for every knee pain? No. In advanced knee arthritis (gonarthrosis), the long-term benefit of arthroscopic irrigation and debridement has not been proven. In arthritic knees, arthroscopy should be considered only if a mechanical problem (a loose body, or a meniscus tear causing locking) accompanies it. Correct patient selection directly determines the benefit gained from arthroscopy.

Shoulder arthroscopy is a closed surgical method performed by inserting a camera and surgical instruments into the shoulder joint through small incisions. Over the last twenty years it has become the gold standard in shoulder surgery, and many pathologies that previously required large open operations are now treated arthroscopically. Less muscle damage, less postoperative pain, and an earlier start to rehabilitation are its most pronounced advantages.

The most common application of arthroscopic shoulder surgery is rotator cuff repair. The rotator cuff is a structure made of four muscles that hold the humeral head in the joint socket. The tendons of these muscles can tear with age or after trauma. In arthroscopic repair, the torn tendon is reattached to the bone with the help of suture anchors. Depending on the size of the tear, the operation takes one to two and a half hours. In full-thickness tears, the results of early repair are significantly better than delayed repair, because the tendon retracts over time and undergoes fatty degeneration.

Subacromial impingement syndrome is one of the most common causes of shoulder pain. Bony outgrowths on the underside of the acromion compress the rotator cuff tendons, causing pain and limited movement. In patients who do not respond to conservative treatment (physical therapy, injection), arthroscopic subacromial decompression is applied. In this procedure, the underside of the acromion is shaved to create space for the tendon. The operation takes about thirty minutes, and recovery time is shorter than for other shoulder operations.

Labral tears are another common indication for shoulder arthroscopy. A superior labrum anterior-posterior (SLAP) lesion is the detachment of the upper part of the labrum from the biceps tendon attachment, and it is common in overhead athletes (volleyball, swimming, baseball). Treatment is planned according to the patient’s age and activity level: arthroscopic repair in young athletes, while biceps tenotomy or tenodesis may be preferred over the age of forty.

In the preoperative evaluation, clinical examination is as important as MRI. Pathology is localized with rotator cuff tests (Jobe, lift-off, bear-hug), impingement tests (Neer, Hawkins), and labral tests (O’Brien, anterior apprehension). MR arthrography is a special MRI technique performed with a contrast injection and provides higher diagnostic accuracy than standard MRI in labral tears.

The operation is performed under general anesthesia, with the patient in the lateral decubitus (side-lying) or beach-chair (semi-seated) position. Three to five small portals are made. The operation time varies from thirty minutes to two and a half hours depending on the procedure. A one-night hospital stay is usual. The duration of arm-sling use after surgery depends on the procedure performed: one to two weeks after subacromial decompression, four to six weeks after rotator cuff repair.

Rehabilitation is the most critical factor determining the outcome after shoulder arthroscopy. After rotator cuff repair, only passive movements are allowed in the first six weeks — the patient is forbidden to lift the arm with their own strength. From the sixth week, active movements begin, and from the third month, strengthening exercises. Full strength and function are usually regained at the sixth month. After subacromial decompression, active movements can begin from the first week.

When should surgery be considered in shoulder arthroscopy? As a rule, if pain and loss of function persist despite three to six months of physical therapy and conservative treatment, surgery becomes an option. However, in conditions such as acute full-thickness rotator cuff tears and traumatic labral tears in young patients, early surgery gives better results. Your surgeon determines the timing by evaluating the clinical examination, imaging, and your expectations together.