AKESO MAGP HAIR TRANSPLANT

AKESO MAGP – MICROSCOPE ASSISSTED AND GUIDED PRECISE FUE HAIR TRANSPLANT

AKESO MAGP ( MAGP stands for MICROSCOPE ASSISTED & GUIDED PRECISE FUE HAIR TRANSPLANT ) is a technique in which graft extraction is done with help of microscope . Microscope assistance can provide surgeon upto 10 X – 25 X magnification. Normally FUE hair transplant is done with glasses or loupes having magnification factor 2.5 X – 4 X. While most of websites from individual doctors and clinics claim only 1 – 5 % graft transaction rates but those claims were not realistic as they don’t count partial transactions. You have to give your valuable 15 mins to this page to get the right concept of this MICROSCOPE ASSISTED AND GUIDED PRECISE FUE HAIR TRANSPLANT technique.

AKESO Microscope assisted and guided precise FUE HAIR TRANSPLANT ( MAGP )

Dr Akhilesh Jangid is highly qualified Microsurgeon who has got training of microsurgery in SMS medical college during his plastic surgery training. He enhanced his microsurgery skills at ganga hospital, coimbatore which is world wide famous for microsurgery training. He has got got his skills further enhanced by obersership in St Andrews plastic surgery center , UK .

Dr Akhilesh analysed various parameters which can effect the result of FUE hair transplant. He concluded that that intact graft extraction depends on precise identification of angle between hair and scalp skin. Further if the hair are thin or curly or having very acute angles with scalp skin the transection of grafts increases. Even if complete transection rate is low , partial transection rate is very high in the difficult cases. Role of increasing magnification to identify the correct hair scalp angle is well documented . Most of Surgeons worldwide use magnifying glasses and loupes with magnification factor 2.5 X – 4 X . Dr Akhilesh as a trained microsurgeon is first Hair restoration surgeon in India to use Microscope during the FUE hair graft extraction process. It prevents damage to hair even in most difficult cases for FUE . Further he has done some modifications in his punch to extract intact grafts.

Microscope Assisted: – Dr Akhilesh is microsurgeon who have very high hand eye coordination to operate even at 25 X magnification. AKESO is first clinic in INDIA to use Microscopic 10 X – 25 X magnification standard during graft extraction. Dr Akhilesh is able to extract more than 2500 grafts per day in this technique
Dr Akhilesh modification to FUE Punch – Dr Akhilesh has done 3 modifications in his punches used for FUE graft harvest a. 10 degree Centrifugal edge – As the hair in each graft are in centre , the centrifugal semi sharp edge does not cut the graft. b. Semi sharp edges – so that no graft is cut easily c. Punch Guard – to prevent punch from going deeper than certain level so that graft is not cut

How the MAGP (Microscope assisted FUE) provides better result than normal FUE or Normal DHT / DHI

In normal FUE or DHT or DHI the graft extraction process is done at 2.5 – 4 X magnification . so graft quality is same in each of these techniques
In MAGP we use 10 X – 25 X magnification instead of 2.5 – 4 X magnification. It provides following advantages to improve quality of grafts

It provides better definition of hair scalp angle. So when the punch is inserted parallel to hair direction to cut skin around graft then possibility of partial transection reduces . It increases number of hair in your hair transplant in same number of grafts.
It provides better comparison of grafts when we extract them . We can see even 10 – 20 % difference in thickness of hair and grafts . If we are able to extract 10 % thicker grafts then volume increase is 21 % , If graft thickness can be increase 15 % then extra volume generated is 32 % ( formula to calculate hair volume is πr²L where r = radius of hair and L = length of hair ) . So thicker hair selection means 20 – 30 % extra volume or blackness ( commonly referred as density by patients ) in comparison to normal FUE or DHT .
At higher magnification surgeon can better see number of hair in each graft. So the grafts with higher number of hair can be selected by surgeon more efficiently than normal FUE or normal DHT process . So you get more number of hair in same number of grafts in MAGP Technique .

How much better result can be provided by better graft selection in terms of thickness of hair

Under high magnification of microscope – we can have better comparison of hair thickness in grafts when we extract them . We can see even 10 – 20 % difference in thickness of hair and grafts .
Volume of hair can be calculated by assuming that hair is a cylindrical structure. Formula to calculate hair volume is πr²L where r = radius of hair and L = length of hair
So if diameter or radius increases ( hair thickness increases ) then same number of hair have more volume. So they provide more blackness on your scalp . Results looks more dense.
If we are able to extract 10 % thicker grafts then volume increase is 21 % ( π X 1.1r X 1.1 r L = 1.21 πr²L
If graft thickness can be increase 15 % then extra volume generated is 32 % ( formula to calculate hair volume is πr²L where r = radius of hair and L = length of hair ) . So thicker hair selection means 20 – 30 % extra volume or blackness ( commonly referred as density by patients ) in comparison to normal FUE or DHT .
So by choosing relatively thicker hair we can improve result of FUE or DHT or DHI by 20 – 35 % if we use MICROSCOPIC FUE to select grafts with relatively thicker hair .

How much better result can be provided by better graft selection in terms of grafts with high number of hair

If you are an advance searcher on internet regarding hair transplant, then you know that one hair = 1 follicle. Collection of hair/follicles which are adjacent to each other is called follicular unit. A follicular unit can have 1 – 4 hair or follicles. When follicular unit (FU) is taken out from your scalp, it is called Graft. So One graft has 1 – 4 follicles or 1 – 4 hair.

Under Microscope we can know before extraction that which graft have higher number of hair . SO we can select grafts with higher number of hair . Suppose we are extracting 2000 grafts by FUE and we are getting 4050 hair in these grafts . So with help of microscope we can achieve 4300 – 4500 hair in 2000 grafts . SO MAGP provides you high number of hair in same number of grafts in comparison to FUE / DHT or DHI . Thats why results appear more dense in MAGP even if number of grafts are same.

How much better result can be given by preventing partial transection of grafts

Structure of graft

Normally about 5 – 15 % hair units or grafts contain single hair. About 40 – 50 % grafts or FU contain two hair. About 40 % grafts or FU have three hair. About 5 % may have more than 3 hair. This distribution depends on age, sex, stage of baldness, donor area condition etc.

Calculation of grafts in FUE surgery

If surgeon score your skin to extract graft, he defines it successful graft harvest even if one hair root is intact during graft extraction process even if original Follicular unit has 3 or 4 hair roots. For example one follicular unit has 4 hair and surgeon extracts it intact then it is called one graft . If one hair out of four is damaged then also it is called 1 graft . If two hair gets damaged and two hair are intact then also it is called 1 graft. If three hair get damaged and one hair is intact then also surgeon calls it one graft . So surgeons calculate it as one graft even if one root is intact and three has got damaged. Because of this calculation error same number of grafts can have highly different hair numbers and your hair transplant result will depend on number of hair also.

If a hair technician is harvesting grafts he may have very high complete or partial transection rate of grafts. He may deliver you 1200 hair in 1000 grafts . If an unexperienced surgeon is harvesting 1500 hair in 1000 grafts and other is harvesting 2300 hair in 1000 grafts the possibility of denser result will be more in surgeon who is harvesting more intact FUE units from your scalp . Microsurgery in FUE hair transplant tries to give you more intact FUE grafts so that average number of hair per graft is high and you get better result in same number of grafts .