Chemical inhibitors of β-defensin 113 can exert their inhibitory effects through various mechanisms that compromise the protein's structure and function. Benzalkonium Chloride, for example, can disrupt the interaction between β-defensin 113 and microbial membranes, a critical aspect of its antimicrobial action. This chemical has the ability to interfere with the protein's membrane-active properties, leading to an inhibition of its ability to carry out its antimicrobial role. Similarly, Chlorhexidine can bind to cationic sites of β-defensin 113, which are crucial for the interaction with negatively charged microbial cell walls. This binding can prevent the protein from exerting its antimicrobial effect, thereby inhibiting its function. Furthermore, compounds like Silver Nitrate and Zinc Chloride can interact with β-defensin 113, leading to precipitation or conformational changes that hinder the protein's antimicrobial activity by altering its membrane-binding ability.
Other chemical inhibitors, such as Sodium Hypochlorite and Hydrogen Peroxide, can induce oxidative damage to the amino acid residues of β-defensin 113, which can result in structural and functional disruption at the active sites of the protein. Oxidative damage can lead to alterations in the protein's structure, rendering it incapable of binding to and neutralizing microbial agents. Organic solvents like Ethanol and Methanol can denature β-defensin 113, leading to the loss of its secondary and tertiary structure, which is essential for its function. Denaturation can result in the unfolding of the protein, which in turn can inhibit its antimicrobial properties. Copper(II) Sulfate can also induce aggregation or conformational changes that lead to functional loss. On the other hand, Formaldehyde can cross-link primary amino groups within β-defensin 113, causing irreversible changes in its structure and function. Finally, Acetic Acid and Phenol can alter the local pH or disrupt protein integrity, respectively, both leading to a reduction in the protein's ability to maintain its structure and perform its antimicrobial function.
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| Product Name | CAS # | Catalog # | QUANTITY | Price | Citations | RATING |
|---|---|---|---|---|---|---|
Chlorhexidine | 55-56-1 | sc-252568 | 5 g | $101.00 | 3 | |
Chlorhexidine could bind to the cationic sites of β-defensin 113, preventing the protein from interacting with negatively charged microbial cell walls and thus inhibiting its function. | ||||||
Hydrogen Peroxide | 7722-84-1 | sc-203336 sc-203336A sc-203336B | 100 ml 500 ml 3.8 L | $30.00 $60.00 $93.00 | 27 | |
Hydrogen Peroxide can cause oxidative damage to β-defensin 113, impairing its structural integrity and leading to inhibition of its antimicrobial activity. | ||||||
Silver nitrate | 7761-88-8 | sc-203378 sc-203378A sc-203378B | 25 g 100 g 500 g | $112.00 $371.00 $1060.00 | 1 | |
Silver Nitrate can bind to β-defensin 113, potentially leading to the protein's precipitation or inactivation due to the formation of non-functional complexes. | ||||||
Copper(II) sulfate | 7758-98-7 | sc-211133 sc-211133A sc-211133B | 100 g 500 g 1 kg | $45.00 $120.00 $185.00 | 3 | |
Copper(II) Sulfate can cause aggregation or conformational changes of β-defensin 113 that result in loss of function. | ||||||
Zinc | 7440-66-6 | sc-213177 | 100 g | $47.00 | ||
Zinc Chloride can bind to the β-defensin 113 and induce conformational changes that inhibit its antimicrobial activity by altering its ability to bind to microbial membranes. | ||||||
FCM Fixation buffer (10X) | sc-3622 | 10 ml @ 10X | $61.00 | 16 | ||
Formaldehyde can cross-link primary amino groups within β-defensin 113, leading to irreversible changes in its structure and function. | ||||||
Acetic acid | 64-19-7 | sc-214462 sc-214462A | 500 ml 2.5 L | $62.00 $104.00 | 5 | |
Acetic Acid can alter the local pH and cause acid denaturation of β-defensin 113, disrupting its structural integrity and inhibiting its antimicrobial function. | ||||||