Freie Universitat Berlin

Freie Universitaet Berlin

Ramot at Tel-aviv University Ltd.

University of British Columbia

Oxford University Innovation Limited

Biolitec Unternehmensbeteiligungs Ii Ag

Mivenion Gmbh

Dendropharm Gmbh

Harvard College

Humboldt-Universität Zu Berlin

Universität Dortmund

Vergell Medical S.a.

Biolitec Holding Gmbh & Co Kg

Fu Berlin

Epiios Therapeutics Gmbh

Rainer Haag

David A Weitz

Marie Weinhart

Ronit Satchi-Fainaro

Wiebke Fischer

Paula Ofek

Qiang Wei

Florian Paulus

Volker Albrecht

Donald Elliott Brooks

Jayachandran N Kizhakkedathu

Kai Licha

Arno Wiehe

Wolfgang Friess

Burkhard Gitter

Susanna Gräfe

Ingo Grunwald

Michael Schirner

Carol Robinson

Uwe Landau

Susanna Graefe

Rajesh Shenoi

Sam Moré

Kevin Pagel

Christoph Stein

Hsin-Yung Yen

Benjamin Lai

Idlir Liko

Leonhard Hagen Urner

Svenja Christina Ehrmann

Emanuel Fleige

Dominic Groeger

Uwe Schedler

Michael Unbehauen

Andreas Nitsche

Pia Welker

Halina Machelska-Stein

Abdul Mohiuddin Quadir

Leixiao Yu

Madeleine Witting

Sarah Küchler

Dirk Steinhilber

Michael Staegemann

Mohiuddin Abdul Quadir

Sabine Reimann

Tobias Becherer

Jens Dernedde

Sarah Hedtrich

Yinan Zhong

Kerstin HÖGER

Benjamin Ziem

Halina Machelska

Daniel Braatz

Mathias Dimde

Michal Radowski

Michael KRÄMER

Mohiuddin Quadir

Ronit Satchi - Fainaro

Carina Treiber

Andreas Zielonka

Wenzhong Li

Magda Ferraro

Ehsan Mohammadifar

Daniel Lauster

Fatemeh Zabihi

Mohsen Adeli

Mohammad Suman Chowdhury

Gerd Multhaup

Teodora Valkova

Carol V Robinson

Wanjun Liang

Andreas Herrmann

Sumati Bhatia

Tang Peng

Yu Leixiao

A method of detecting a protein by mass spectrometry comprises: providing a solution comprising a dendritic detergent and a protein; providing a mass spectrometer comprising a nanoelectrospray ionisation source, a mass analyser and a detector; vaporising the solution using the nanoelectrospray ionisation source; ionising the protein; resolving the ionised protein using the mass analyser; and detecting the resolved protein using the detector. A method of extracting a membrane protein from its native membrane comprises: providing a membrane protein in its native membrane; contacting the membrane protein with a dendritic detergent. Dendritic detergents for use in the methods are also provided.

Dendritic detergents for the analysis of proteins by mass spectrometry

The invention relates to the field of analgesics. According to the invention, a kit or composition, particularly a pharmaceutical composition or a pharmaceutical kit, is provided, comprising a nanocarrier which is a hyperbranched polymer, such as a dendritic polymer or dendrimer, preferably having a molecular weight of 1,000-100,000 g/mol, and an analgesic which, when administered without nanocarrier, has both peripheral and central analgesic effect, preferably an opioid such as nalbuphine. According to the invention, the analgesic in this composition mainly or exclusively has a peripheral effect and thus reduces side effects triggered by the activation of central or intestinal opioid receptors. It is used for the treatment of peripheral pain and/or inflammation. The invention also relates to particularly suitable nanocarriers.

Analgesic preparation with nanocarriers and use thereof

The disclosure relates to an amphiphilic block copolymer comprising a first block consisting of a polymeric hydrophilic domain, wherein the polymeric hydrophilic domain consists of a polyglycerol; an optional second block consisting of a hydrophobic domain and a first linker domain, wherein the second block is covalently bound to the first block via the first linker domain, an optional third block consisting of a catechol domain and a second linker domain, wherein the third block is covalently bound to the first block via the second linker domain; and a fourth block consisting of a crosslinking domain and a third linker domain, wherein the fourth block is covalently bound to the first block via the third linker domain, wherein the crosslinking domain comprises a reactive residue enabling a crosslinking between individual molecules of the amphiphilic block copolymer.

Amphiphilic block copolymer and coating arrangement

Biologically active compounds that can be used as photosensitizers for diagnostic and therapeutic applications, particularly for PDT of cancer, infections and other hyperproliferative diseases, fluorescence diagnosis and PDT treatment of a non-tumorous indication such as arthritis, inflammatory diseases, viral or bacterial infections, dermatological, ophthalmological or urological disorders are provided as well as providing methods to obtain them in pharmaceutical quality. In addition, conjugates are provided in which these photosensitizers are attached to water-soluble polymers via cleavable linkers that can be cleaved in the body under specific conditions. Another embodiment consists of formulating the desired tetrapyrrole photosensitizer into a pharmaceutical formulation to be injected into the body avoiding undesirable effects like solubility problems or delayed pharmacokinetics of the tetrapyrrole systems.

Conjugates of porphyrinoid photosensitizers and glycerol-based polymers for photodynamic therapy

It is provided a polyglycerol derivative, comprising a dendritic polyglycerol backbone and at least one substituent in the nature of a covalently bound negatively charged group chosen from the group consisting of sulfates, sulfonates, phosphates, phosphonates, bisphosphonates, carboxylates and combinations thereof. The substituent is bound to the polyglycerol backbone via a linker, the linker being chosen from the group consisting of moieties being or comprising a carbamate group, an ester group, an orthoester group, an amide group, a disulfide bridge group, an acetal group, an imine group and combinations thereof.

Polyglycerol derivative and a method for manufacturing the same

The invention relates to a linear polyglycerol compound, comprising a backbone of linearly linked glycerol residues. This compound is characterized in that it carries a plurality of substituents in the nature of covalently bound sulfates, wherein a degree of substitution of the backbone is preferably between 30 and 100%. A method of manufacturing the compound as well as uses of this compound and similar compounds are also disclosed.

Anionic linear polyglycerol derivatives, a method for manufacturing and applications

An article, comprising a substrate and a polymer film attached to the substrate is provided, the polymer film comprising a first layer of a first polymer functionalized by a first functionalization compound covalently bound to said first polymer and bearing at least one catecholic group being present on a surface of the first layer. The polymer film is a layered film, a top layer of which is formed by the first layer, the layered film comprising at least one further layer of at least one further polymer functionalized by a further functionalization compound covalently bound to said further polymer and bearing at least one catecholic group being present on a surface of the at least one further layer, wherein an average ratio of catecholic groups per polymer molecule is equal to or less than 1 in case of the first polymer and greater than 1 in case of the further polymer.

Bioinert article and its use

A method for producing a polyglycerol nanogel is disclosed, the method comprising the following steps: Mixing an aqueous solution of first polyglycerol macromonomers, which are modified with a first reactive group, with an aqueous solution of second polyglycerol macromonomers, which are modified with a second reactive group, wherein the first reactive group and the second reactive group can react with each other forming a chemical bond; transferring the mixture into an organic non-solvent; and precipitation of a polyglycerol nanogel consisting of first polyglycerol macromonomers and second polyglycerol macromonomers which are covalently bound to each other. According to an aspect of the invention, the method is characterized in that the organic non-solvent is miscible with water and in that the method is carried out without adding surface-active substances.

Method for producing a polyglycerol nanogel for the encapsulation and release of biologically active substances

The invention relates to a compound suited as entity carrier, having the general formula (I) wherein X is an amine-containing residue further defined herein. The invention further relates to the use of such compounds, a nanocarrier system, a kit comprising such compounds and methods for gene silencing and anti-cancer treatment.

Compounds suited as nanocarriers for active agents and their use

The present invention relates generally to methods and compositions for targeting of intracellular molecules involved in proliferation and protein synthesis of activated cells using polyanionic multivalent macromolecules. In particular aspect, multiple sulfate groups linked to polyol are specifically targeted to the cytoplasm and nucleus of proliferating and activated cells. The invention further comprises novel polyanionic macromolecular compounds and formulations.

Polyanionic multivalent macromolecules for intracellular targeting of proliferation and protein synthesis

Growing community of inventors

Berlin, Germany

Rainer Haag