Table 4.
The fatty acids existing in fish oils for preventing or treating cutaneous wounds.
Composition | Experimental Model | Wound-Induced Approach | Benefit | Reference |
---|---|---|---|---|
Fish oil | Pig | Full-thickness skin excision | Fast wound closure at day 2 | Shingel et al. [99] |
Fish oil | Rat | Full-thickness skin excision | Accelerated healing process and increased IL-10 | Peng et al. [101] |
DHA | Rat | Full-thickness skin excision | Accelerated healing process and increased GPR120 and TGF-β | Arantes et al. [102] |
14R,21-dihydroxy-DHA and 14S,21-dihydroxy-DHA | Mouse | Full-thickness skin excision | Increased granulation tissue region (>65%) and reduced epithelial gap | Lu et al. [103] |
DHA and EPA | Human | Blisters in the forearms | Increased IL-1β expression in the wound sites | McDaniel et al. [104] |
ALA, LA, and oleic acid | Mouse | Full-thickness skin excision | Faster wound closure by oleic acid than ALA and LA | Cardoso et al. [105] |
LA and oleic acid | Rat | Full-thickness skin excision | Reduced necrotic cell layer thickness | Pereira et al. [106] |
LA | Rat | Streptozotocin- induced diabetic wound | Increased leukocyte accumulation and angiogenesis | Rodrigues et al. [107] |
Conjugated LA | Human | Fractional laser ablation | Reduced edema and itching | Wu and Goldman [108] |
ALA, α-linolenic acid; GPR120, G-protein-coupled receptor 120; LA, linoleic acid; TGF-β, transforming growth factor β.