Sub Cat. No. |
Molecular Weight |
Glycan Name |
Functional Group |
Inquiry |
X25-04-ZQ1101-1 |
PEG 350 Da |
Mannose |
PtBA |
Inquiry
|
X25-04-ZQ1101-2 |
PEG 550 Da |
Mannose |
PtBA |
Inquiry
|
X25-04-ZQ1101-3 |
PEG 750 Da |
Mannose |
PtBA |
Inquiry
|
X25-04-ZQ1101-4 |
PEG 1 kDa |
Mannose |
PtBA |
Inquiry
|
X25-04-ZQ1101-5 |
PEG 2 kDa |
Mannose |
PtBA |
Inquiry
|
X25-04-ZQ1101-6 |
PEG 3 kDa |
Mannose |
PtBA |
Inquiry
|
X25-04-ZQ1101-7 |
PEG 4 kDa |
Mannose |
PtBA |
Inquiry
|
X25-04-ZQ1101-8 |
PEG 5 kDa |
Mannose |
PtBA |
Inquiry
|
X25-04-ZQ1101-9 |
PEG 10 kDa |
Mannose |
PtBA |
Inquiry
|
X25-04-ZQ1101-10 |
PEG 20 kDa |
Mannose |
PtBA |
Inquiry
|
Properties
Description
This sophisticated stimuli-responsive polymer conjugate features poly(tert-butyl acrylate) (PtBA), a polymer exhibiting pH-dependent hydrolysis of its tert-butyl ester groups, linked to mannose via a hydrophilic polyethylene glycol (PEG) spacer. This high-purity reagent provides a versatile tool for creating mannose-decorated nanocarriers capable of triggered release of encapsulated cargo in response to acidic environments within mannose receptor-expressing cells.
Source
Chemical synthesis
Solubility
PtBA-PEG-mannose is soluble in a wide range of organic solvents, such as DCM, DMF, and DMSO, and shows excellent solubility in water.
Identity
Confirmed by NMR.
Applications
PtBA-PEG-mannose can be used to develop pH-responsive systems with potential mannose-specific interactions.