Azido-PEG2-PFP ester - CAS 1393330-37-4

Azido-PEG2-PFP ester - CAS 1393330-37-4 Catalog number: BADC-00408

* Please be kindly noted products are not for therapeutic use. We do not sell to patients.

Azido-PEG2-PFP ester is a mixture of azide-functionalized polyethylene glycol (PEG) derivatives interleaved with pentafluorophenyl (PFP) ester moieties. This special compound is widely used as a coupling agent in the field of bioconjugation chemistry and shows unparalleled potential in efficient biomolecule modification. Whether proteins or peptides, azido-PEG2-PFP esters open up many possibilities for revolutionary applications, including drug delivery systems, targeted therapies, and transformative diagnostics.

Category
ADCs Linker
Product Name
Azido-PEG2-PFP ester
CAS
1393330-37-4
Catalog Number
BADC-00408
Molecular Formula
C13H12F5N3O4
Molecular Weight
369.24
Purity
≥98%
Azido-PEG2-PFP ester

Ordering Information

Catalog Number Size Price Quantity
BADC-00408 -- $-- Inquiry
Description
Azido-PEG2-PFP ester is a mixture of azide-functionalized polyethylene glycol (PEG) derivatives interleaved with pentafluorophenyl (PFP) ester moieties. This special compound is widely used as a coupling agent in the field of bioconjugation chemistry and shows unparalleled potential in efficient biomolecule modification. Whether proteins or peptides, azido-PEG2-PFP esters open up many possibilities for revolutionary applications, including drug delivery systems, targeted therapies, and transformative diagnostics.
Synonyms
perfluorophenyl 3-(2-(2-azidoethoxy)ethoxy)propanoate;
IUPAC Name
(2,3,4,5,6-pentafluorophenyl) 3-[2-(2-azidoethoxy)ethoxy]propanoate
Canonical SMILES
C(COCCOCCN=[N+]=[N-])C(=O)OC1=C(C(=C(C(=C1F)F)F)F)F
InChI
InChI=1S/C13H12F5N3O4/c14-8-9(15)11(17)13(12(18)10(8)16)25-7(22)1-3-23-5-6-24-4-2-20-21-19/h1-6H2
InChIKey
FEXHEMGARNABFF-UHFFFAOYSA-N
Solubility
DMF, DCM
Appearance
Soild powder
Shipping
Room temperature
Storage
-20 °C
1. Microbial esterases and ester prodrugs: An unlikely marriage for combating antibiotic resistance
Erik M Larsen, R Jeremy Johnson Drug Dev Res . 2019 Feb;80(1):33-47. doi: 10.1002/ddr.21468.
The rise of antibiotic resistance necessitates the search for new platforms for drug development. Prodrugs are common tools for overcoming drawbacks typically associated with drug formulation and delivery, with ester prodrugs providing a classic strategy for masking polar alcohol and carboxylic acid functionalities and improving cell permeability. Ester prodrugs are normally designed to have simple ester groups, as they are expected to be cleaved and reactivated by a wide spectrum of cellular esterases. However, a number of pathogenic and commensal microbial esterases have been found to possess significant substrate specificity and can play an unexpected role in drug metabolism. Ester protection can also introduce antimicrobial properties into previously nontoxic drugs through alterations in cell permeability or solubility. Finally, mutation to microbial esterases is a novel mechanism for the development of antibiotic resistance. In this review, we highlight the important pathogenic and xenobiotic functions of microbial esterases and discuss the development and application of ester prodrugs for targeting microbial infections and combating antibiotic resistance. Esterases are often overlooked as therapeutic targets. Yet, with the growing need to develop new antibiotics, a thorough understanding of the specificity and function of microbial esterases and their combined action with ester prodrug antibiotics will support the design of future therapeutics.
2. Lactose esters: synthesis and biotechnological applications
Maciej Guzik, Jakub Staroń, Janusz M Dąbrowski, Ewelina Cichoń Crit Rev Biotechnol . 2018 Mar;38(2):245-258. doi: 10.1080/07388551.2017.1332571.
Biodegradable nonionic sugar esters-based surfactants have been gaining more and more attention in recent years due to their chemical plasticity that enables the various applications of these molecules. In this review, various synthesis methods and biotechnological implications of lactose esters (LEs) uses are considered. Several chemical and enzymatic approaches are described for the synthesis of LEs, together with their applications, i.e. function in detergents formulation and as additives that not only stabilize food products but also protect food from undesired microbial contamination. Further, this article discusses medical applications of LEs in cancer treatment, especially their uses as biosensors, halogenated anticancer drugs, and photosensitizing agents for photodynamic therapy of cancer and photodynamic inactivation of microorganisms.
3. Fast-Acting Antibacterial, Self-Deactivating Polyionene Esters
Christian Krumm, Lena Benski, Joerg C Tiller, Manfred Köller, Franziska Oberhaus, Jens Wilken, Sylvia Trump ACS Appl Mater Interfaces . 2020 May 13;12(19):21201-21209. doi: 10.1021/acsami.9b19313.
Biocidal compounds that quickly kill bacterial cells and are then deactivated in the surrounding without causing environmental problems are of great current interest. Here, we present new biodegradable antibacterial polymers based on polyionenes with inserted ester functions (PBI esters). The polymers are prepared by polycondensation reaction of 1,4-dibromobutene and different tertiary diaminodiesters. The resulting PBI esters are antibacterially active against a wide range of bacterial strains and were found to quickly kill these cells within 1 to 10 min. Because of hydrolysis of the ester groups, the PBI esters are degraded and deactivated in aqueous media. The degradation rate depends on the backbone structure and the pH. The structure of the polymers also controls the deactivation mechanism. While the more hydrophilic polymers require hydrolyses of only 19 to 30% of the ester groups to become practically inactive, the more hydrophobic PBI esters require up to 85% hydrolysis to achieve the same result. Thus, depending on the environmental conditions and the chemical nature, the PBI esters can be active for only 20 min or for at least one week.
The molarity calculator equation

Mass (g) = Concentration (mol/L) × Volume (L) × Molecular Weight (g/mol)

The dilution calculator equation

Concentration (start) × Volume (start) = Concentration (final) × Volume (final)

This equation is commonly abbreviated as: C1V1 = C2V2

Why Choose BOC Sciences?

Customer Support

Providing excellent 24/7 customer service and support

Project Management

Offering 100% high-quality services at all stages

Quality Assurance

Ensuring the quality and reliability of products or services

Global Delivery

Ensuring timely delivery of products worldwide

Questions & Comments
Verification code
Send Inquiry
Verification code
Resources & Supports
Inquiry Basket