AKESO MSDF TECHNIQUE

How MSDF Differs from Traditional FUE:

Standard FUE often involves a one-step sharp punch dissection by Rotation , which can risk transecting follicles and damaging surrounding tissues.

MSDF, in contrast, allows for a controlled, stepwise dissection in which upper layers of graft with hard tissue like skin and gland are cut by rotation and inner soft layers are cut by oscillation so that it better preserves graft quality and minimizes damage. It is an ideal technique for achieving high-density, natural results with fewer complications.

The MSDF technique is time-intensive and can increase surgeon fatigue due to the careful control required at each stage. However, the long-term benefits of healthier, more robust grafts make it a premium option for patients seeking high-quality hair transplants.

AKESO MSDF TECHNIQUE

AKESO MSDF (Multi-Stage Deep Follicular Dissection FUE) is an advanced, multi-step follicular extraction method focusing on careful dissection of the surrounding tissue around each follicular unit.

Here’s a detailed breakdown of how the MSDF technique works, along with its advantages. MSDF is Multiphasic FUE graft extraction method so we will first describe the points in sequence

In multiphasic FUE –

The use of rotation, oscillation, or a combination of rotation and oscillation (rotoscillation) instead of only rotation for FUE.

The upper layers are hard, so they require rotation to cut. Deeper layers are soft, and part of the hair graft inside the softer fat layer is very flexible and curly or splayed, so it can be damaged by rotation. Oscillation or vibration are soft forces that dissect deeper layers.

Multiphasic FUE devices

All devices available in market like trivellini and waw device can use rotation, oscillation, and vibration based on timers rather than depth of punch insertion. They work on the hypothesis that rotation damages the inner layers, but oscillation causes less damage. In these devices you can set rotation movement time and oscillation movement time and repeat cycles.

In these Multiphasic devices, the surgeon has to set an approximate time when he expects to cross the upper layers. This means he has to set a time in the machine and make sure that the rotation phase duration is just enough to cross the upper layer. If he remains superficial during that time, then the skin and graft will buckle, and the graft can be buried or damaged. If he is too fast, then rotation may reach deeper layers, where the graft can be cut.

AKESO MSDF VS TRADITIONAL MULTIPHASIC FUE DEVICE

AKESO MSDF also works on the same principle as multiphasic devices, but the difference is that the surgeon decides for each graft depth and has to use a foot paddle to stop rotation at the correct depth. Although MSDF does not require oscillation in the second phase, oscillation can be used in harder tissues. In MSDF, the surgeon can decide at what level of depth he wants to stop rotation by pressing the foot pedal of the MSDF machine.

The only disadvantage of MSDF is that it is much more tiring for the surgeon, as he has to concentrate more and press the foot pedal in fractions of seconds. If the surgeon wants to extract 1500 grafts in one hour, then he has to press the foot pedal 1500 times in MSDF. In normal FUE or Multiphasic devices, we can set timers so they are less tiring.

Prerequisites of performing AKESO MSDF Technique

AKESO MSDF MOTOR—D AKHILESH JANGID made the MSDF motor through independent research. This motor can switch rotation to oscillation or vibration in just 100 milliseconds by pressing a foot switch. We had tried automation by timers in initial phase, but timer is not perfect solution. So right now, it is manual switching. New methodologies are being tested like pressure sensors to reduce surgeon fatigue but currently they are in experimental phase.
AKESO MSDF PUNCH is a circular blunt punch with sharp teeth in some places. As the edges of sharp teeth are beyond the blunt edge, sharp teeth cut the tissue when the punch rotates. When the punch is stopped or vibrates or mildly oscillates, sharp teeth are not able to cut the tissue. When hair or any hard tissue comes in front of sharp teeth in vibration or low arc oscillation phase – Punch displaces the hair rather than cutting it, and the hair goes to a blunt edge so it gets protected even if we go into deeper layers. You can also easily go to the depth of 4 – 4.5 mm without cutting the graft.
Expert Surgeon—The Surgeon has a big role in AKESO MSDF, as only the surgeon can decide when to stop rotation. If the surgeon stops rotations prematurely, the skin may be tented, and the graft may be buried. If surgeon is late to stop it – graft may be cut.
Magnification – Besides tactile feed, the surgeon should be able to see the depth of punch along with hair angle premises. So, it should be done using surgical loupes of 4X – 6X or a microscope. Surgeons using Optivisior, specs, naked eye, or 2 X magnification cannot learn or perform it. The best is to do it with a Microscope (MAGP PROCESS)

Key Benefits of MSDF Technique:

REDUCED GRAFT DAMAGE – Graft transection rates are low even when we work in deeper layers of skin

Enhanced Graft Quality: By carefully dissecting around the follicle in multiple stages, MSDF ensures that each graft retains more fat and stem cells, which leads to more robust and healthier grafts. These grafts are less likely to be damaged during extraction, improving their chances of survival when transplanted.

Reduction in Mechanical and Heat Damage: MSDF avoids this by stopping the punch after the superficial dissection and relying on blunt forces for deeper extraction. This minimizes heat generation and minimizes tissue damage. Because the motor stops repeatedly, the heat produced during rotation also dissipates.

Improved Outcomes with Small Punches: MSDF ensures the grafts are still bulky and healthy even when using smaller diameter punches, reducing the risk of “stripping” or damaging the f follicles during extraction. This is a significant advantage in achieving natural-looking, dense hair transplants.

Increased long-term results: The enhanced preservation of the surrounding tissue, fat, and stem cells, coupled with the precision of the technique, leads to higher graft survival rates and more life. This is particularly beneficial for patients looking for high-density, natural results from their hair transplant.