Wound Treatment in Ankara, Turkey

Wound treatment includes all medical methods used to repair damage to the skin or other body tissues. This process aims to support healing across a wide range—from cleaning an acute cut to providing specialized care for chronic wounds. The main goals are to prevent infection, ensure the wound closes as quickly and healthily as possible, preserve tissue function, and promote healing with minimal scarring. Proper wound care guides the body’s natural repair mechanisms, minimizes complications, and improves the patient’s quality of life.

You can contact Prof. Dr. Ebru Soy, one of the doctors performing Wound Treatment in Ankara, to get information about Wound Treatment prices, the process, and the hospital where Wound Treatment is performed.

How does the wound-healing process work?

When a wound occurs, an impressive and highly organized process begins behind the scenes. Within seconds, your body activates an “emergency action plan” to repair the damage. To understand it more clearly, you can think of wound healing as a four-stage construction project. Each phase builds on the previous one, and all steps work together in harmony.

In any construction site, what’s the first priority when damage occurs? Securing the area. The body does the same. Immediately after injury, blood vessels constrict to reduce bleeding. Then platelets rapidly gather and stick together to form a temporary “barrier.” Soon after, the clotting system reinforces this barrier into a stronger “concrete wall.” This clot not only stops bleeding, but also becomes the first “scaffold” on which repair cells can work.

Once the site is secured, the next step is debris removal. This is where the body’s “cleaning crew,” white blood cells, takes over. First, neutrophils arrive as the rapid response team, removing bacteria, foreign particles, and dead tissue. A few days later, macrophages appear—like heavy-duty machinery. Macrophages perform deeper cleanup and release chemical signals that call in the “engineers” and “builders” for the next phase. This inflammatory stage explains the mild redness, swelling, and warmth seen around a wound and is essential for healing. However, if inflammation lasts too long, the site never fully clears and healing stalls—this is exactly what happens in chronic wounds.

After cleanup, the main construction begins. This phase starts a few days after injury and can continue for weeks. Several key tasks happen at the same time:

• Building new supply lines: The repair process needs oxygen, energy, and materials. The body forms new blood vessels to increase blood flow in the wound area, ensuring resources reach the site.
• Laying the foundation and walls: Fibroblasts—“construction workers” of the body—produce collagen, the body’s “cement and bricks.” New vessels and fresh collagen form a bright red, healthy tissue that fills the wound bed. This is called granulation tissue and is one of the clearest signs that healing is progressing.
• Closing the roof: While the wound bed fills, skin cells at the edges (keratinocytes) multiply and migrate, covering the surface like a roof, restoring the protective skin layer.

Once the main structure is built, the final finishing phase begins. This is the longest stage and can last months or sometimes more than a year. During this remodeling phase, collagen fibers that were formed quickly and irregularly are gradually broken down and replaced by stronger, more organized fibers. This strengthens the wound area and improves flexibility. However, the repaired tissue never regains 100% of its original strength—usually reaching about 80%. In the end, the scar takes its final form.

Do all wounds heal the same way?

Not at all. Just like not every construction project is the same, not every wound is the same. Correctly classifying a wound is crucial for choosing the best healing strategy. The most basic distinction is based on healing pace and wound behavior.

• Acute Wounds (Fast projects):

These follow the body’s normal healing timeline and progress smoothly. Surgical incisions, kitchen cuts, or scraped knees are examples. In acute wounds, the body knows what to do. The main role of care is to support the process, keep the wound clean, and prevent issues like infection that can delay healing.

• Chronic Wounds (Projects that won’t finish):

These wounds fail to enter a clear healing phase after a certain period (often around 4 weeks). This is not just a delay—it usually signals an underlying problem. The healing mechanism is disrupted. The most common chronic wounds include:

• Diabetic foot ulcers
• Venous leg ulcers (varicose ulcers)
• Pressure ulcers (bed sores)

Managing chronic wounds is very different from treating acute wounds. The goal is not only dressing changes, but identifying and correcting what is blocking healing—such as controlling blood sugar, improving circulation, or removing pressure on the wound.

How is a wound assessed and evaluated?

Effective wound treatment begins with careful assessment—almost like detective work. By examining both the wound and the patient, clinicians identify barriers to healing and determine what the wound needs. This evaluation is dynamic and repeated during each dressing change. Several key features form the “identity” of a wound:

• Location: A wound over a bony area may be exposed to pressure; a wound over a joint may be stressed by movement.
• Size: Length, width, and depth are measured to track progress. Shrinking size is a good sign.
• Wound bed color: Color is one of the clearest indicators of wound health. Bright, healthy red (granulation tissue) suggests healing, while yellow sticky tissue (slough) or a black dry covering (eschar) indicates dead tissue that must be removed.
• Drainage amount and type: Some drainage is normal. Clear, odorless, small amounts are expected. Increased drainage, yellow/green color, thicker consistency, or bad odor may indicate infection.
• Wound edges: Healing edges are pink and active, gradually merging with the wound bed. Rolled-in, hardened, or purple edges may suggest stalled healing.
• Surrounding skin: Redness, swelling, and warmth around the wound can signal spreading infection.
• Pain: A sudden increase in pain often points to a problem, especially infection.

Why is debridement (removal of dead tissue) so important?

Debridement is one of the most critical interventions in the healing journey of chronic wounds. In simple terms, it means removing all “debris” in the wound bed that prevents healing. This debris includes dead tissue (yellow slough and black eschar), foreign material, and stubborn bacterial layers known as biofilm.

Why is this cleanup so vital? Because dead tissue:

• Physically blocks healing: It creates a barrier that prevents healthy cells from migrating and filling the wound.
• Feeds bacteria: It provides an excellent environment for bacterial growth, greatly increasing infection risk.
• Maintains inflammation: The body treats dead tissue as a constant threat, keeping the wound stuck in the inflammatory phase and “locking” the healing process.

By performing debridement, a chronic wound is essentially “reset” biologically and converted into a wound that can heal more like an acute wound. Several debridement methods exist, and the choice depends on the wound condition and the patient’s overall health. Common methods include:

• Surgical debridement
• Sharp debridement
• Enzymatic debridement
• Autolytic debridement
• Biological (maggot) debridement
• Mechanical debridement

Surgical debridement is the fastest and most effective method. It is usually performed in an operating room under anesthesia, especially for large areas of dead tissue or spreading infection. The surgeon removes all non-viable tissue until healthy, bleeding margins are reached. Sharp debridement follows the same principle but is smaller in scale and can often be performed in a clinic or at the bedside using instruments such as scalpels, scissors, or curettes.

Enzymatic debridement is a strong alternative for patients who are not suitable for surgery. Special enzyme-based creams dissolve dead tissue gradually without harming healthy tissue. Autolytic debridement is the gentlest approach, using moisture-retentive dressings to activate the body’s own enzymes. It is safe but slow.

Biological debridement (maggot therapy) may sound unusual, but it can be extremely effective. Sterile medical larvae release enzymes that dissolve dead tissue and then feed on it. They do not harm healthy tissue and also help reduce harmful bacteria.

Mechanical debridement uses physical force. Technologies such as pressurized irrigation or ultrasonic devices can selectively disrupt and remove dead tissue.

How are wound infections and the “biofilm” problem managed?

It is unavoidable for an open wound to be exposed to microbes. However, microbial presence does not always mean infection. The problem begins when microbes multiply uncontrollably, overpower the immune system, and sabotage healing. In chronic non-healing wounds, bacteria often protect themselves by forming a structure called biofilm.

You can think of biofilm as a microscopic “fortress” or a sticky “city” built by bacteria. They live inside a protective slime-like matrix they produce. This barrier is so strong that it blocks both immune cells and many antibiotics from reaching the bacteria effectively. That is why treating a biofilm-covered wound with antibiotics alone can be ineffective—like throwing stones at the walls of a fortress. Biofilm is one of the main reasons chronic wounds remain stubbornly unhealed.

So how do we overcome this invisible fortress? The answer lies in a cyclical strategy called “wound hygiene,” built on three core steps:

• Break the fortress: Debridement physically disrupts and removes the biofilm.
• Clear the debris: After debridement, the wound is irrigated with appropriate solutions to wash away biofilm remnants and free bacteria.
• Weaken the enemy: Antiseptic dressings (such as silver-, iodine-, or medical honey-based products) are applied immediately to target exposed bacteria before they reorganize.

This cycle should be repeated regularly to prevent biofilm from rebuilding. Systemic antibiotics (oral or IV) are typically reserved for cases where infection spreads beyond the wound into surrounding tissues (cellulitis) or enters the bloodstream.

How is the right dressing selected for a wound?

Once the wound bed is clean and ready to heal, the next step is choosing the best “outfit” for it—selecting the right dressing. The gold standard of modern wound care is maintaining a moist wound-healing environment. Contrary to old beliefs, letting a wound dry out and form a thick scab is not ideal. A dry environment slows cell migration, while a moist environment allows repair cells to move freely—almost like “swimming”—which accelerates healing and reduces scarring.

The basic principle is simple: “If the wound is dry, add moisture; if it is too wet, absorb excess moisture.” There is no single dressing that fits every wound. Selection should match the wound’s current needs. Common dressing types and their roles include:

• Hydrogels
• Hydrocolloids
• Foam dressings
• Alginates and hydrofibers

Hydrogels have high water content and are used to rehydrate dry wounds. They help soften dead tissue and support easier natural removal. Hydrocolloids work well for clean wounds with low to moderate drainage; they gel when in contact with wound fluid and maintain moisture.

Foam dressings are ideal for moderate to heavy drainage, absorbing excess fluid while maintaining the right moisture balance. Alginates and hydrofibers are “super absorbers” used for very high drainage or deep, tunneling wounds. Their fiber structure turns into a gel on contact with fluid, filling spaces and trapping excess moisture.

Which advanced technologies are used for difficult, non-healing wounds?

Sometimes wounds resist healing even with the best standard care. In such cases, advanced therapies that actively stimulate and support healing can be used.

• Negative Pressure Wound Therapy (NPWT / VAC): Think of this as a smart “vacuum cleaner” for the wound. A special foam is placed into the wound, sealed with an airtight dressing, and connected to a device that applies controlled suction. This draws wound edges closer, removes excess fluid and swelling, improves blood flow, and strongly stimulates new tissue growth.
• Hyperbaric Oxygen Therapy (HBOT): The patient breathes 100% oxygen in a pressurized chamber. Under pressure, oxygen dissolved in the blood plasma increases dramatically, delivering “concentrated oxygen” to tissues with poor blood flow. This supports new blood vessel formation and strengthens infection control, especially in conditions like diabetic foot ulcers.
• Bioengineered Skin Substitutes: For large or deep wounds, laboratory-developed “skin equivalents” may be used. These can be collagen-based scaffolds (a framework for the body’s cells to grow into) or scaffolds containing living skin cells. They provide coverage and release growth factors that promote faster healing.