Patent classifications
C07K4/00
PEPTIDES AND METHODS AND USES THEREOF FOR MODULATING ANAPHASE PROMOTING COMPLEX (APC) ACTIVITY
Novel activators of the APC complex and methods and uses of these activators are provided. In particular, the activators are used for increasing resistance to stress and/or increasing lifespan in a plant or mammalian cell, in a plant or mammalian embryo or in a plant or subject. The activators are also used for treating cancer in a subject.
PEPTIDES AND METHODS AND USES THEREOF FOR MODULATING ANAPHASE PROMOTING COMPLEX (APC) ACTIVITY
Novel activators of the APC complex and methods and uses of these activators are provided. In particular, the activators are used for increasing resistance to stress and/or increasing lifespan in a plant or mammalian cell, in a plant or mammalian embryo or in a plant or subject. The activators are also used for treating cancer in a subject.
NUCLEOSIDES WITH ANTIVIRAL AND ANTICANCER ACTIVITY
The invention provides a a compound of formula I:
##STR00001##
wherein R.sub.1-R.sub.6 and X have any of the values described herein, as well as pharmaceutical compoustions comprising such compounds and therapeutic methods comprising the administration of such compounds.
NUCLEOSIDES WITH ANTIVIRAL AND ANTICANCER ACTIVITY
The invention provides a a compound of formula I:
##STR00001##
wherein R.sub.1-R.sub.6 and X have any of the values described herein, as well as pharmaceutical compoustions comprising such compounds and therapeutic methods comprising the administration of such compounds.
Bis-alkoxyl amide alkyl cationic peptide lipids, synthesis method thereof, and application thereof
A bis-alkoxyl amide alkyl cationic peptide lipid has a chemical structure as below: ##STR00001##
wherein the bis-alkoxyl amide alkyl cationic peptide lipid is dispersed in water to obtain the cationic peptide liposome which are high in stability and uniform in dispersion and have about 120 nm of average grain diameter and Zeta electric potential between 30 and 50 mV. The liposome can effectively compress the plasmids DNA and siRNA, can efficient transfection both in-vitro and in-vivo, and almost does not have toxicity to cells and mice, so that the liposome can be widely applied in gene delivery as a gene vector.
Bis-alkoxyl amide alkyl cationic peptide lipids, synthesis method thereof, and application thereof
A bis-alkoxyl amide alkyl cationic peptide lipid has a chemical structure as below: ##STR00001##
wherein the bis-alkoxyl amide alkyl cationic peptide lipid is dispersed in water to obtain the cationic peptide liposome which are high in stability and uniform in dispersion and have about 120 nm of average grain diameter and Zeta electric potential between 30 and 50 mV. The liposome can effectively compress the plasmids DNA and siRNA, can efficient transfection both in-vitro and in-vivo, and almost does not have toxicity to cells and mice, so that the liposome can be widely applied in gene delivery as a gene vector.
Self-assembling amphiphilic peptides
Self assembling peptides in combination with infectious and non-infectious proteins as inhibitors and diagnostic tools in transmissible spongiform encephalopathies and amyloid producing neuorodegenerative diseases are described herein.
Self-assembling amphiphilic peptides
Self assembling peptides in combination with infectious and non-infectious proteins as inhibitors and diagnostic tools in transmissible spongiform encephalopathies and amyloid producing neuorodegenerative diseases are described herein.
PEPTIDE-BASED VACCINES, METHODS OF MANUFACTURING, AND USES THEREOF FOR INDUCING AN IMMUNE RESPONSE
The present disclosure relates to novel peptide-based vaccines, methods of manufacturing the novel peptide-based vaccines and uses thereof for delivering peptide antigens to induce an immune response, and in particular a T cell response to a subject.
Modified lipopolysaccharide glycoform and method of use
The present disclosure generally relates to genetic engineering of bacteria. More particularly, the present disclosure describes genetic engineering of E. coli to create mutant O-antigen ligase, as well as novel lipopolysaccharide molecules resulting from that genetic engineering. Methods for using those novel molecules are also described.