Abstract: A conjugated polymer-based optoelectronic material includes: an optoelectronic conjugated polymer having a main chain and side chains; and an organic diluent which is at least partially miscible with the conjugated polymer. Molecules of the organic diluent physically react with the side chains of the conjugated polymer to form hydrogen bonds therebetween, thereby generating molecular constraints in the conjugated polymer to suppress molecular deformation of the conjugated polymer that occurs soon after the conjugated polymer is excited.

Abstract: A conjugated polymer-based optoelectronic material includes: an optoelectronic conjugated polymer having a main chain and side chains; and an organic diluent which is at least partially miscible with the conjugated polymer. Molecules of the organic diluent physically react with the side chains of the conjugated polymer to form hydrogen bonds therebetween, thereby generating molecular constraints in the conjugated polymer to suppress molecular deformation of the conjugated polymer that occurs soon after the conjugated polymer is excited.

Abstract: The present invention provides a compound of formula I wherein A, B and C are a repeating unit; each of A and B is an optionally substituted group for forming a conjugated polymer; C is a crosslinkable group; and n is an integer equal to or greater than 1. The present invention further provides an element and an electronic device using the compound of formula I, and more particularly, provides a light emitting diode (LED) device using the compound of formula I.

Abstract: The present invention provides a compound of formula I wherein A, B and C are a repeating unit; each of A and B is an optionally substituted group for forming a conjugated polymer; C is a crosslinkable group; and n is an integer equal to or greater than 1. The present invention further provides an element and an electronic device using the compound of formula I, and more particularly, provides a light emitting diode (LED) device using the compound of formula I.

Abstract: Disclosed are a macrocyclic carbodiimide (MC-CDI) and a process for synthesizing the same through condensation of a molecule with multiple-isocyanate terminal functional groups under high dilution in the presence of a phospholene catalyst such as phospholene or arsenic catalyst. Also disclosed are MC-CDI derivatives, such as MC-urea (MC-U), MC-acylurea (MC-ACU), acid functionalized MC-ACU, and anhydride functionalized MC-ACU, processes for synthesizing the same, and the applications of such derivatives as hydrolysis stabilizers in organic polymeric materials, such as polyurethane (PU) and polyesters, as well as the applications in the syntheses of the amide- and imide-modified polyurethane by ring-opening reaction of the MC-ACU.

Abstract: Disclosed are a macrocyclic carbodiimide (MC-CDI) and a process for synthesizing the same through condensation of a molecule with multiple-isocyanate terminal functional groups under high dilution in the presence of a phospholene catalyst such as phospholene or arsenic catalyst. Also disclosed are MC-CDI derivatives, such as MC-urea (MC-U), MC-acylurea (MC-ACU), acid functionalized MC-ACU, and anhydride functionalized MC-ACU, processes for synthesizing the same, and the applications of such derivatives as hydrolysis stabilizers in organic polymeric materials, such as polyurethane (PU) and polyesters, as well as the applications in the syntheses of the amide- and imide-modified polyurethane by ring-opening reaction of the MC-ACU.