Ectoine, Sodium hyaluronate
Indications
Ectoine, Sodium hyaluronate is used for:
ECTOIN
Ectoine is used for irritation or inflammation of the skin or the mucous membranes, for example with a dry nose, allergic rhinitis (hay fever) or for inflammatory skin disorders such as neurodermatitis or psoriasis.
Hyaluronic acid
Used to treat knee pain in patients with joint inflammation (osteoarthritis). It is usually used in patients who have not responded to other treatments such as acetaminophen, exercise, or physical therapy. Hyaluronic acid may also be used in plastic surgery to reduce wrinkles on the face or as a filler in other parts of the body. May be used in ophthalmology to assist in the extraction of cataracts, the implantation of intraocular lenses, corneal transplants, glaucoma filtration, retinal attachment and in the treatment of dry eyes. Finally, hyaluronic acid is also used to coat the bladder lining in treating interstitial cystitis.
Ectoine is used for irritation or inflammation of the skin or the mucous membranes, for example with a dry nose, allergic rhinitis (hay fever) or for inflammatory skin disorders such as neurodermatitis or psoriasis.
Hyaluronic acid
Used to treat knee pain in patients with joint inflammation (osteoarthritis). It is usually used in patients who have not responded to other treatments such as acetaminophen, exercise, or physical therapy. Hyaluronic acid may also be used in plastic surgery to reduce wrinkles on the face or as a filler in other parts of the body. May be used in ophthalmology to assist in the extraction of cataracts, the implantation of intraocular lenses, corneal transplants, glaucoma filtration, retinal attachment and in the treatment of dry eyes. Finally, hyaluronic acid is also used to coat the bladder lining in treating interstitial cystitis.
Adult Dose
Child Dose
Renal Dose
Administration
Contra Indications
Precautions
Pregnancy-Lactation
Interactions
Adverse Effects
Side effects of Ectoine, Sodium hyaluronate :
Mechanism of Action
Hyaluronic acid
Hyaluronic acid performs its activities as a tissue lubricant and hence, it is thought to be key in the modulation of interactions between adjacent tissues. Hyaluronic acid is a polysaccharide which is distributed widely in the extracellular matrix of connective tissue in man. It forms a viscoelastic solution in water which makes it suitable for aqueous and vitreous humor in ophthalmic surgery. It is suggested to provide mechanical protection for ocular tissues and cell layers due to its high viscosity. The elasticity of the solutions of hyaluronic acid can assist in the absorption of mechanical stress and the generation of a protective buffer for the tissues. This viscoelasticity enables maintenance of a deep chamber during surgical manipulation since the solution does not flow out of the open anterior chamber. In the area of wound healing, hyaluronic acid acts as a protective vehicle that allows the transport of peptide growth factors and other structural proteins to the site of action. After promoting the transport of key molecules, it is enzymatically degraded and the transported proteins are released to promote tissue repair. Hyaluronic acid is being used intra-articularly to treat osteoarthritis. Cell receptors that have been identified for hyaluronic acid fall into three main groups: CD44, Receptor for Hyaluronan-mediated motility (RHAMM) and intracellular adhesion molecule-1 (ICAM-1). CD44 mediates cell interaction with hyaluronic acid and the binding of the two functions as an important part in various physiologic events, such as cell aggregation, migration, proliferation and activation; cell-cell and cell-substrate adhesion; endocytosis of hyaluronic acid, which leads to hyaluronic acid catabolism in macrophages; and assembly of petircellular matrices from HA and proteoglycan. CD44 has two important roles in skin, regulation of keratinocyte proliferation in response to extracellular stimuli and the maintenance of local hyaluronic acid homeostasis. ICAM-1 is known mainly as a metabolic cell surface receptor for hyaluronic acid, and this protein may be responsible mainly for the clearance of hyaluronic acid from lymph and blood plasma, which accounts for perhaps most of its whole-body turnover. Ligand binding of this receptor, thus, triggers a highly coordinated cascade of events that includes the formation of an endocytotic vesicle, its fusion with primary lysosomes, enzymatic digestion to monosaccharides, active transmembrane transport of these sugars to cell sap, phosphorylation of GlcNAc and enzymatic deacetylation. ICAM-1 may also serve as a cell adhesion molecule, and the binding of hyaluronic acid to ICAM-1 may contribute to the control of ICAM-1-mediated inflammatory activation.
Hyaluronic acid performs its activities as a tissue lubricant and hence, it is thought to be key in the modulation of interactions between adjacent tissues. Hyaluronic acid is a polysaccharide which is distributed widely in the extracellular matrix of connective tissue in man. It forms a viscoelastic solution in water which makes it suitable for aqueous and vitreous humor in ophthalmic surgery. It is suggested to provide mechanical protection for ocular tissues and cell layers due to its high viscosity. The elasticity of the solutions of hyaluronic acid can assist in the absorption of mechanical stress and the generation of a protective buffer for the tissues. This viscoelasticity enables maintenance of a deep chamber during surgical manipulation since the solution does not flow out of the open anterior chamber. In the area of wound healing, hyaluronic acid acts as a protective vehicle that allows the transport of peptide growth factors and other structural proteins to the site of action. After promoting the transport of key molecules, it is enzymatically degraded and the transported proteins are released to promote tissue repair. Hyaluronic acid is being used intra-articularly to treat osteoarthritis. Cell receptors that have been identified for hyaluronic acid fall into three main groups: CD44, Receptor for Hyaluronan-mediated motility (RHAMM) and intracellular adhesion molecule-1 (ICAM-1). CD44 mediates cell interaction with hyaluronic acid and the binding of the two functions as an important part in various physiologic events, such as cell aggregation, migration, proliferation and activation; cell-cell and cell-substrate adhesion; endocytosis of hyaluronic acid, which leads to hyaluronic acid catabolism in macrophages; and assembly of petircellular matrices from HA and proteoglycan. CD44 has two important roles in skin, regulation of keratinocyte proliferation in response to extracellular stimuli and the maintenance of local hyaluronic acid homeostasis. ICAM-1 is known mainly as a metabolic cell surface receptor for hyaluronic acid, and this protein may be responsible mainly for the clearance of hyaluronic acid from lymph and blood plasma, which accounts for perhaps most of its whole-body turnover. Ligand binding of this receptor, thus, triggers a highly coordinated cascade of events that includes the formation of an endocytotic vesicle, its fusion with primary lysosomes, enzymatic digestion to monosaccharides, active transmembrane transport of these sugars to cell sap, phosphorylation of GlcNAc and enzymatic deacetylation. ICAM-1 may also serve as a cell adhesion molecule, and the binding of hyaluronic acid to ICAM-1 may contribute to the control of ICAM-1-mediated inflammatory activation.