Botox is a treatment product made from botulinum toxin so that it can be safely used on the human body. It temporarily suppresses the secretion of the neurotransmitter (acetylcholine) secreted from the nerve endings in the area where the drug was injected, thereby improving the muscles or salivary glands in the desired area. It has the effect of selectively suppressing the function and action of sweat glands, sebaceous glands, etc.

The areas where Botox is most often used are to improve wrinkles around the eyes, forehead, forehead, and chin.
It is also used on the neck, nasolabial folds, lips, and crow's feet. Forehead wrinkles occur when you raise your eyebrows or frown, and in this case, injecting just a small amount of Botox can have a big effect.
Wrinkles between the eyebrows can also be effectively removed through Botox. This can also provide the additional effect of making drooping eyebrows look lifted up.
You can also expect the effect of improving the overall facial impression. By placing Botox on major muscle areas of the face through a careful and sophisticated procedure, you can see an overall lifting effect.
As we age, we can see sagging facial muscles, improving wrinkled features, and eliminating wrinkles at the same time.

The effect usually begins to appear within 2 to 3 days to 1 week.(There are individual differences) It usually lasts for about 3 to 6 months, and if additional treatments are performed at appropriate intervals, the maintenance period can be relatively longer.

When performing forehead botox treatment, the treatment is not performed directly above the eyebrows, but this symptom may occur during the drug diffusion process. It may be uncomfortable for 2-3 weeks, but it usually gradually improves after a month. You don't need to worry too much as it will return to normal after 2-3 months. If you are very uncomfortable, visit the hospital, see the doctor, and take appropriate measures to recover a little faster.

Most general botoxes are processed into a visible white powder by combining pure neurotoxin with a relatively large complex protein (750kD). The particle size of the complex protein is large, so when injected into the body, it is converted into an antigen by immune cells. It can cause resistance to the drug as it is recognized and antibodies against it are formed. On the other hand, in the case of Xeomin, the development of technology to separate complex proteins using advanced technology has significantly lowered the possibility of immune response by manufacturing only pure neurotoxins, resulting in a very low resistance development rate.