Amrita Vishwa Vidyapeetham

Other

Amrita Vishwa Vidyapeetham University

Erasmus University Medical Center Rotterdam

Shantikumar Nair

Manzoor Koyakutty

Deepthy Menon

John Joseph

Anusha Ashokan

Giridharan Loghanathan Malarvizhi

Praveen Kerala Varma

Vijay Harish

Sajesh K Meethaleveedu

Vijay Harish Somasundaram

Archana P Retnakumari

Parwathy Chandran

Archana P R

Dominic James Robinson

The invention discloses nanoparticles comprising compounds of calcium with anions such as phosphate, pyrophosphate, sulphate, silicate, carbonate, molybdate, or phosphosilicate that are doped with various ions. The nanoparticles are configured to produce heat (hyperthermia) under radio-wave (1 KHz-1000 GHz) exposure together with magnetism suitable for contrast imaging in MRI, X-ray absorption for computed tomography, near-infrared optical fluorescence for optical imaging, and/or radio-isotope emission for nuclear imaging or therapy. The nanoparticles can also be incorporated into micro-beads or other 3 dimensional scaffolds for image-guided (MRI, CT, NIR, nuclear) tissue regeneration, immunotherapy, vascular or tumor embolization, and/or chemo/radio-embolization.

Radio-wave responsive doped nanoparticles for image-guided therapeutics

An apparatus for fabrication of a woven tubular nanotextile used in vascular graft applications. The woven nanotextile conduit is 0.1 to 50 mm in diameter and includes a multitude of hierarchically arranged nanofibers. They are made from low strength bundled nanoyarns containing thousands of nanofibers with improved mechanical strength. The weaving apparatus interweaves the warp and weft yarns in longitudinal and transverse directions, resulting in a flexible and strong woven product. The physical and biological properties of the woven nanotextile were significantly enhanced when compared to non-woven nanofibrous form and conventional medical textiles. The nanotextile displayed superhydrophilic behavior in an otherwise hydrophobic material and when implanted as a vascular graft was robust, suturable, kink-proof and non-thrombogenic, with complete endothelialization of the graft luminal area.

Strong, flexible, and thrombus-free woven nanotextile based vascular grafts, and method of production thereof

A composite implant for providing simultaneous magnetic resonance imaging (MRI) and computed tomographic (CT) imaging contrast is disclosed. The composite implant is formed of a calcium compound in the form of nano or microparticles doped with a first dopant configured to provide MRI contrast and a second dopant configured to provide CT contrast. The calcium compound is loaded onto a polymer gel matrix and lyophilized to form a mass with 3-dimensionally interconnected porosity, configured to provide tissue integration and proliferation sites. Methods of forming the composite implant are also disclosed. The implant could be a scaffold or bead structured to enable treatment of human or animal patient for bone/cartilage injury or defect by implantation, with MRI and CT monitoring.

MRI and CT contrast-enabled composite implants for image-guided tissue regeneration and therapy

A formulation for treating a patient with hepatocellular carcinoma is disclosed. The formulation comprises therapeutic agents in the form of nanoparticles containing one or more proteins or polysaccharides. The therapeutic agent is conjugated to an active targeting agent causing the formulation to preferentially segregate to the hepatocellular carcinoma tissue to release the therapeutic agents. Methods of treating hepatocellular carcinoma using the formulations are also disclosed.

Nanoparticle formulations for delivering multiple therapeutic agents

Electrospinning apparatus and method for producing multi-dimensional structures such as one-dimensional continuous yarns, two-dimensional mats and three-dimensional cotton-like fluffy scaffolds is disclosed. Further, electrospinning apparatus and method with single collector geometry for producing multi-dimensional structures and core-sheath yarns are disclosed.

Electrospinning apparatus and method for producing multi-dimensional structures and core-sheath yarns

A core-shell particle formulation for delivering multiple therapeutic agents is disclosed. More particularly, the formulation comprising protein-protein core-shell particle configured to independently release therapeutic agents from the core and the shell. Moreover, the core-shell particle bearing therapeutic agents enable treatment against the diseases such as cancer, inflammatory and auto-immune diseases.

Core-shell particle formulation for delivering multiple therapeutic agents

A core-shell particle formulation for delivering multiple therapeutic agents is disclosed. More particularly, core-shell particle formulation configured to independently release therapeutic agents from the core and the shell. Moreover, the core-shell particle bearing therapeutic agents enables treatment against the diseases such as cancer, inflammatory and auto-immune diseases.

Growing community of inventors

Kochi, India

Shantikumar Nair