Skip to main content
HairCited

Acidi grassi Omega-3 Figure

16 figure da ricerca revisionata da esperti

Tutti Acidi grassi Omega-3 Caffeina (uso topico) Cheratina Collagene Dutasteride Ferro Finasteride L-Cisteina Microneedling Minoxidil MSM Olio di rosmarino Selenio Spironolattone Terapia laser a bassa intensità Terapia PRP Vitamina B12 Vitamina D Zinco
All Types Chart Diagram Photograph Flowchart Forest Plot Micrograph Other
Figure 1
Figure 1 Chart

Enzymatic hydrolysis of feather keratin by microbial keratinases is characterized, showing protein fragment profiles. The Bacillus subtilis-derived keratinase produces low molecular weight hydrolysates suitable for hair care applications.

Feather keratin hydrolysates obtained from microbial keratinases: effect on hair fiber.

Figure 2
Figure 2 Chart

Molecular weight distribution of the keratin hydrolysates is analyzed, comparing enzymatic products with commercial alternatives. Lower molecular weight peptides penetrate hair fibers more effectively, offering superior protection against chemical and environmental damage.

Feather keratin hydrolysates obtained from microbial keratinases: effect on hair fiber.

Figure 4 MALDI-TOF MS analysis of the enzymatic keratin hydrolysates from feather keratin by Bacillus subitilis (A) and a commercial hydrolysate (KH1) (B). For details see Materials and Methods.
Figure 3 Chart

MALDI-TOF mass spectrometry analysis compares enzymatic keratin hydrolysates from Bacillus subtilis with a commercial hydrolysate (KH1). The mass spectra reveal distinct peptide profiles, with the enzymatic product showing a different molecular weight distribution pattern.

Feather keratin hydrolysates obtained from microbial keratinases: effect on hair fiber.

Figure 4
Figure 4 Chart

Tensile strength or mechanical properties of hair fibers treated with the enzymatic keratin hydrolysates are measured. The protective effect of low molecular weight protein fragments on hair integrity is quantified against untreated controls.

Feather keratin hydrolysates obtained from microbial keratinases: effect on hair fiber.

Figure 12
Figure 12 Chart

Antioxidant enzyme activity measurements (SOD, catalase, or GPx) in liver or kidney tissue across all experimental groups in the diazinon-plant oil study.

Protective effect of some plant oils on diazinon induced hepatorenal toxicity in …

Figure 13
Figure 13 Chart

Lipid peroxidation or oxidative damage marker levels in renal tissue of rats treated with diazinon and plant oils.

Protective effect of some plant oils on diazinon induced hepatorenal toxicity in …

Figure 14
Figure 14 Chart

Body weight changes or organ weight ratios in rats across the different diazinon and plant oil treatment groups over the study period.

Protective effect of some plant oils on diazinon induced hepatorenal toxicity in …

Figure 15
Figure 15 Chart

Hematological parameters in diazinon-exposed rats with and without plant oil supplementation, reflecting systemic toxicity effects.

Protective effect of some plant oils on diazinon induced hepatorenal toxicity in …

Figure 16
Figure 16 Chart

Cholinesterase activity levels in rats treated with diazinon and plant oils, as diazinon is an organophosphate that inhibits acetylcholinesterase.

Protective effect of some plant oils on diazinon induced hepatorenal toxicity in …

Figure 17
Figure 17 Chart

Additional biochemical markers in the diazinon-plant oil study, potentially including lipid profile or protein levels across experimental groups.

Protective effect of some plant oils on diazinon induced hepatorenal toxicity in …

Figure 18
Figure 18 Chart

Inflammatory marker levels or immunological parameters measured in rats exposed to diazinon with and without plant oil protection.

Protective effect of some plant oils on diazinon induced hepatorenal toxicity in …

Figure 19
Figure 19 Chart

Dose-response or time-course data for plant oil protective effects against diazinon-induced hepatorenal toxicity in the rat model.

Protective effect of some plant oils on diazinon induced hepatorenal toxicity in …

Figure 20
Figure 20 Chart

Summary comparison of hepatoprotective efficacy across the different plant oils tested in the diazinon toxicity study.

Protective effect of some plant oils on diazinon induced hepatorenal toxicity in …

Figure 21
Figure 21 Chart

Summary comparison of nephroprotective efficacy across the different plant oils evaluated against diazinon-induced renal damage.

Protective effect of some plant oils on diazinon induced hepatorenal toxicity in …

Figure 22
Figure 22 Chart

Supplementary biochemical or histological data from the plant oil-diazinon study, providing additional evidence for the protective mechanisms.

Protective effect of some plant oils on diazinon induced hepatorenal toxicity in …

Figure 23
Figure 23 Chart

Final summary data from the hepatorenal toxicity study, consolidating the evidence for plant oil protection against diazinon-induced organ damage in rats.

Protective effect of some plant oils on diazinon induced hepatorenal toxicity in …