Related references
Note: Only part of the references are listed.Interaction of Sulfonated Calix[n]arenes with Rhodamine B and Its Application to Determine Acetylcholine in a Real Neutral Aqueous Medium
Yong-Jun Zhang et al.
CHINESE JOURNAL OF CHEMISTRY (2010)
Acetylcholine detection at micromolar concentrations with the use of an artificial receptor-based fluorescence switch
Nina Korbakov et al.
LANGMUIR (2008)
Thermodynamics of interactions between organic ammonium ions and sulfonatocalixarenes
LH Wang et al.
THERMOCHIMICA ACTA (2006)
Fluorescence regeneration as a signaling principle for choline and carnitine binding: A refined supramolecular sensor system based on a fluorescent azoalkane
H Bakirci et al.
ADVANCED FUNCTIONAL MATERIALS (2006)
Biochemistry of the para-sulfonato-calix[n]arenes
Florent Perret et al.
CHEMICAL COMMUNICATIONS (2006)
Recognition of quaternary ammonium cations by calix[4]arene derivatives supported on gold nanoparticles
A Arduini et al.
CHEMICAL COMMUNICATIONS (2005)
Tetracyanoresorcin[4]arene as a pH dependent artificial acetylcholine receptor
SD Tan et al.
ORGANIC & BIOMOLECULAR CHEMISTRY (2004)
A new fluorometric method for the detection of the neurotransmitter acetylcholine in water using a dansylcholine complex with p-sulfonated calix[8]arene
T Jin
JOURNAL OF INCLUSION PHENOMENA AND MACROCYCLIC CHEMISTRY (2003)
Acetylcholine recognition by a deep, biomimetic pocket
F Hof et al.
ANGEWANDTE CHEMIE-INTERNATIONAL EDITION (2003)
A synthetic receptor for choline and carnitine
P Ballester et al.
JOURNAL OF THE AMERICAN CHEMICAL SOCIETY (2002)
Entropic origin of the sulfonate groups' electrostatic assistance in the complexation of quaternary ammonium cations by water soluble calix[4]arenes
G Arena et al.
JOURNAL OF THE CHEMICAL SOCIETY-PERKIN TRANSACTIONS 2 (2000)
Share Paper
