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Avidin/biotin

A typical force curve showing the specific avidin-biotin interaction is depicted in figure Bl.20.10. The SFA revealed the strong influence of hydration forces and membrane undulation forces on the specific binding of proteins to membrane-bound receptors [81]. [Pg.1741]

The avidin-biotin complex, known for its extremely high affinity (Green, 1975), has been studied experimentally more extensively than most other protein-ligand systems. The adhesion forces between avidin and biotin have been measured directly by AFM experiments (Florin et al., 1994 Moy et al., 1994b Moy et al., 1994a). SMD simulations were performed on the entire tetramer of avidin with four biotins bound to investigate the microscopic detail of nnbinding of biotin from avidin (Izrailev et al., 1997). [Pg.43]

The simulations of the avidin-biotin complex (Izrailev et ah, 1997) showed that a major difficulty involved in studies of the binding and flexibility of... [Pg.59]

Izrailev et al., 1997] Izrailev, S., Stepaniants, S., Balsera, M., Oono, Y., and Schulten, K. Molecular dynamics study of unbinding of the avidin-biotin complex. Biophys. J. 72 (1997) 1568-1581... [Pg.62]

Avidin-biotinic system as the aid of address delivery of antitumor compounds 98MI54. [Pg.231]

Agiamamioti K, Triantis T, Papadopoulos K, Scorilas A (2006) 10-(2-Biotinyloxyethyl)-9-acridone a novel fluorescent label for (strept)avidin-biotin based assays. J Photoch Photobio A 181 126-131... [Pg.58]

Volume 184. Avidin-Biotin Technology Edited by Meir Wilchek and Edward A. Bayer... [Pg.23]

Figure 8.1 The results of IHC of two experiments using Dynabeads (Dynal, New York, NY) coated with biotinylated anti-mouse IgG (first experiment) and protein S-100 (second experiment), (a) Positive control showing red color (S-100) localized in the melanoma cells, (b) Strong positive red color circles all beads coated with biotinylated anti-mouse antibody after the heating AR treatment (first experiment), (c) Using the heating AR treatment, S-100-coated polymer beads show positive red color around the beads as circles (second experiment), (d) Negative control of the first experiment. No red color could be seen for polymer beads (arrows) that had been treated with exactly the same protocol as that of slide (b), but omitting the avidin-biotin-peroxidase (label). Bar = 50pm. Reproduced with permission from Shi et al., J. Histochem. Cytochem. 2005 53 1167-1170. See color insert. Figure 8.1 The results of IHC of two experiments using Dynabeads (Dynal, New York, NY) coated with biotinylated anti-mouse IgG (first experiment) and protein S-100 (second experiment), (a) Positive control showing red color (S-100) localized in the melanoma cells, (b) Strong positive red color circles all beads coated with biotinylated anti-mouse antibody after the heating AR treatment (first experiment), (c) Using the heating AR treatment, S-100-coated polymer beads show positive red color around the beads as circles (second experiment), (d) Negative control of the first experiment. No red color could be seen for polymer beads (arrows) that had been treated with exactly the same protocol as that of slide (b), but omitting the avidin-biotin-peroxidase (label). Bar = 50pm. Reproduced with permission from Shi et al., J. Histochem. Cytochem. 2005 53 1167-1170. See color insert.
Narang U., Anderson G.P., King K.D., Liss H.S., Ligler F.S., Enhanced biosensor performance using an avidin-biotin bridge for antibody immobilization, Proc. SPIE. 2980 187-194,1997. [Pg.454]

A similar type of biotin-dendritic multimer also was used to boost sensitivity in DNA microarray detection by 100-fold over that obtainable using traditional avidin-biotin reagent systems (Stears, 2000 Striebel et al., 2004). With this system, a polyvalent biotin dendrimer is able to bind many labeled avidin or streptavidin molecules, which may carry enzymes or fluorescent probes for assay detection. In addition, if the biotinylated dendrimer and the streptavidin detection agent is added at the same time, then at the site of a captured analyte, the biotin-dendrimer conjugates can form huge multi-dendrimer complexes wherein avidin or streptavidin detection reagents bridge between more than one dendrimer. Thus, the use of multivalent biotin-dendrimers can become universal enhancers of DNA hybridization assays or immunoassay procedures. [Pg.376]

Figure 7.21 Dendrimers that are fluorescently labeled as well as biotinylated create enhanced detection reagents for use in (strept)avidin-biotin-based assays. Large complexes containing multiple fluorescent dendrimers can bind to antigens and form a highly sensitive detection system that exceeds the detection capability of fluorescently labeled antibodies. Figure 7.21 Dendrimers that are fluorescently labeled as well as biotinylated create enhanced detection reagents for use in (strept)avidin-biotin-based assays. Large complexes containing multiple fluorescent dendrimers can bind to antigens and form a highly sensitive detection system that exceeds the detection capability of fluorescently labeled antibodies.
In another example, ligands can be biotinylated with a cleavable biotinylation reagent and then incubated with receptor molecules. The resulting complex can be isolated by affinity chromatography on immobilized (strept)avidin. Final purification of the ligand-receptor can be accomplished by cleaving the biotin modification sites while the complex is still bound to the support. The receptor complex thus can be eluted from the column without the usual harsh conditions required to break the avidin-biotin interaction. [Pg.391]

The reagent also has been used in a unique tRNA-mediated method of labeling proteins with biotin for nonradioactive detection of cell-free translation products (Kurzchalia et al., 1988), in creating one- and two-step noncompetitive avidin-biotin immunoassays (Vilja, 1991), for immobilizing streptavidin onto solid surfaces using biotinylated carriers with subsequent use in a protein avidin-biotin capture system (Suter and Butler, 1986), and for the detection of DNA on nitrocellulose blots (Leary et al., 1983). [Pg.514]

Iodoacetyl-LC-biotin has been used to localize the SH thiol of myosin by use of an avidin-biotin complex visualized by electron microscopy (Sutoh et al., 1984) and to determine the spatial relationship between SHj and the actin binding site on the myosin subfragment-1 surface (Yamamoto et al., 1984). [Pg.525]

To reduce the hydrazone bonds to more stable linkages, cool the solution to 4°C and add an equal volume of 30 mM sodium cyanoborohydride in PBS. Incubate for 40 min. Note If the presence of a reducing agent is detrimental to protein activity, eliminate this step. In most cases, the hydrazone linkage is stable enough for avidin-biotin detection experiments. [Pg.527]


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Antibody immobilization strategies biotin- avidine interaction

Antigen Avidin/biotin systems

Antigens localized using avidin-biotin

Application methods avidin-biotin molecules

Avidin

Avidin affinity constant with biotin

Avidin biotin analysis

Avidin biotin binding ability

Avidin biotin binding site

Avidin biotin deficiency

Avidin biotin mixture

Avidin reaction with biotin

Avidin, biotin binding affinity

Avidin, biotin binding affinity assay

Avidin, biotin deficiency caused

Avidin-Biotin Advantages

Avidin-Biotin Affinity Reactions

Avidin-Biotin Complex (ABC) Immunocytochemistry

Avidin-Biotin Disadvantages

Avidin-Biotin Immunocytochemistry

Avidin-Biotin Method Advantages

Avidin-biotin Systems

Avidin-biotin affinity

Avidin-biotin assay

Avidin-biotin biosensor systems

Avidin-biotin complex

Avidin-biotin complex methods

Avidin-biotin conjugate

Avidin-biotin detection system

Avidin-biotin detection system testing

Avidin-biotin horseradish peroxidase immobilization

Avidin-biotin interactions

Avidin-biotin method

Avidin-biotin molecules

Avidin-biotin reactions

Avidin-biotin reagents

Avidin-biotin recognition

Avidin-biotin systems dissociation constant

Avidin-biotin-peroxidase complex

Biosensors Biotin-avidin

Biosensors avidin-biotin systems

Biotin and avidin

Biotin- avidine interaction

Biotin- avidine interaction for antibody immobilization

Biotin-(strept)avidin interaction

Biotin-avidin binding

Biotin-avidin complexation

Biotin-avidin detection

Biotin-avidin technology

Biotin-avidin/streptavidin interaction

Biotin/avidin. protein immobilization

Bridged avidin-biotin

Bridged avidin—biotin system

Case Study Binding of Biotin Analogs to Avidin

Chemicals avidin-biotin

Detection system avidin-biotin conjugate

Detection using avidin-biotin

Detection using avidin-biotin interactions

ELISA using avidin-biotin

Enantioselectivity biotin-avidin technology

Immunoassay avidin-biotin interaction

Immunoassay avidin-biotin reagents

Immunoassay avidin—biotin complex

Immunoassay biotin-avidin system

Immunoassay labeled avidin—biotin system

Immunohistochemistry avidin—biotin method

Labeled avidin-biotin

Metalloenzymes artificial, biotin-avidin technology

Monolayers avidin-biotin

Proteins avidin-biotin complex

Radioactivity using avidin-biotin

Use of (Strept)avidin-Biotin Interactions in Assay Systems

Use of Avidin—Biotin in Assay Systems

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