Advancing minimally invasive. therapeutics through novel device. development. Minima y Invasive New Technologies T H E L E O N A M. A N D H A R R Y B.

Similar documents
A Coordinated Registry Network Based on the Vascular Quality Initiative: VISION. Vascular Implant Surveillance & Interventional Outcomes Network

Keeping Patients and Medical Professionals at the Center of Everything We Do

Perspective on initial Limflow experience in the US. Peter A. Schneider, MD Kaiser Foundation Hospital Honolulu, Hawaii

KEY TO INNOVATION AT VASCUTEK JAPAN MATTERS FEBRUARY 7TH 2014

New creative textile construction using innovative braiding technology and materials

BRIC Surgical Sutures Market Outlook to 2020

TRUFILL DCS ORBIT Detachable Coil System

Progress in X-Ray & MR

Nanotechnology and Advanced Materials for more effective Healthcare

Decide, guide, treat and confirm: The Philips Volcano CLI solution

Minimally Invasive Surgery

Whitepaper: Precision Micro-Braiding for Implantable Devices

Aortic Endografts Market

Mechanical Engineer. If interested, please submit your resumes to

LINC James F. McKinsey, M.D.

EvaluateMedTech has used a number of sources within the site to develop a 4-level classification tree based on the FDA approvals process.

ISO Cardiovascular implants Endovascular devices Part 2: Vascular stents Part 2: Vascular stent

COMMITTEE FOR MEDICINAL PRODUCTS FOR HUMAN USE (CHMP)

SMEs learn more about how to commercialise health related products at Lifescience Launchpad

Making the difference

Bioengineered AV Grafts: They Are Finally Happening! Synthetic Vascular Dialysis Grafts. Vascular Grafts and Failure. Disclosure Information

Our Experience with Trinias Biplane and Hybrid Operating Room Systems

Bioabsorbable metal stents: properties, modeling and open questions

Life Valve Project (FP7)

MISSION - Set (align) the arm bone, then apply the blue cast. The cast needs to be all the way down, and it needs to completely cover the break.

FREQUENTLY ASKED QUESTIONS

Protect the Neck. Lieven Maene, MD. Marc Bosiers Koen Deloose Joren Callaert. Patrick Peeters Jürgen Verbist. Lieven Maene Roel Beelen.

Patient-specific simulation of stent-graft deployment within an abdominal aortic aneurysm

Precision Vascular Robotics. Corindus Vascular Robotics (CVRS) January 2018

INUED DISCONTINUED DISCONTINUED DISCON MAKING THE IMPOSSIBLE POSSIBLE CENTER FOR REGENERATIVE MEDICINE

Virtual scaffolding and radial strength testing of stents

The Leader in the Science of Heart Valves and Hemodynamic Monitoring

Brazil Gastric Balloon Procedures Outlook to 2020

YOUR PARTNER. In The Global Life Sciences Market. Value Plastics Fluid Management Components Biomaterial Delivery Devices Avalon Catheter Solutions

DSM perspective on Innovation-driven growth

2016 North American Cell Therapeutics Technology Innovation Award

Technology Development Funding Program Round 3

Clinical Applications. ImagingRite. Interventional Radiology

HEMOSTASIS IN SURGERY

Where ideas take shape. MEDICAL

China-EU Competition Week: Abbott's Acquisition of St. Jude Medical

CapSure Permanent Fixation System

In 1921, Terumo began meeting the challenges in medical care

DEMONSTRATING YOUR MEDICINE S VALUE TO ALL STAKEHOLDERS TRUSTED COMMERCIALIZATION AND MARKET ACCESS EXPERTISE

Diagnosis for Open Wounds as a Result of Cancer Resection

European Regenerative Medicine Firms & Their Strategic Approaches. Michael Morrison University of York

Medtronic Life Sciences Case Study

Creating the future of Healthcare through meaningful innovation. Gene Saragnese, CEO Healthcare Imaging Systems

InVivo Therapeutics. Developing Innovative Products for Spinal Cord Injury

ADDIS ABABA UNIVERSITY CENTER OF BIOMEDICAL ENGINEERING

PTH Effects Bone Healing and Vasculogenesis in Calvaria Bone Allograft Model

AMERICAN HEART ASSOCIATION RESEARCH FACTS FY

Courtesy of the Kitasato Institute archives

A comparison of CCSD and OPCS Procedure Classifications and an assessment of the mapping challenges.

Functional Assessment and Clinical Outcome

Zenith Alpha System, Designed for Easy and Durable repairs. Prof. Elixène JEAN-BAPTISTE (Nice)

Project Proposal Ultrasound Mediated Tissue Engineering Project Team 21

TAK-CELERATOR. Introducing a new External R&D Initiative to Accelerate Development of Therapies in Rare Diseases. Patients Partnerships Performance

The Clinical Investigation Policy and Procedure Manual

Roche in Australia Innovation Leader

STUDY OF STENT DEFORMATION AND STRESS DEVELOPED AT DIFFERENT STENT DEPLOYMENT PRESSURES

The Role of Adult Stem Cells in Personalized and Regenerative Medicine

Novel BioResorbable Vascular Platforms from India

SIRRIS. Bioprinting: markets and opportunities. Grégory Nolens. QED AM in Medical November 4th 2014

First Experiences with the Ziehm Vision FD Mobile C-Arm with Flat-Panel Detector

Production Assistance for Cellular Therapies PACT

Improving Pa-ent Outcomes with Research: The Appliance of Science NIHR UCL Hospitals Biomedical Research Centre

Germany Tissue Engineered - Skin Substitutes Market Outlook to 2020

INVEST IN TOPADUR! HEALTH IS THE MOST IMPORTANT THING IN LIFE!

April 7, 2016 VIA ELECTRONIC MAIL

Design and Development of Biomedical and Surgical Instruments in Biomedical Applications

April 15, 2015 VIA ELECTRONIC MAIL

Shaping the Future of Biomedical Device Design and Diagnostics. Kristian Debus

our history Codman Instrument Portfolio

France Pressure Relief Devices Market Outlook to 2020

EndoVascular hybrid Trauma and bleeding Management (EVTM)

Acquisition of COSMOTEC

Biomedical sensor technology: state - of the art and future roadmap

Optimize efficiency with a universal system.

Optima IGS 330 Versatility within your reach. gehealthcare.com

Future bound. Philips Ingenuity Core

Translational Research

MEDICAL DEVICES: TECHNOLOGIES AND GLOBAL MARKETS

BIOLOGIC MEDICATIONS IN THE TREATMENT OF IBD. crohnsandcolitis.ca

MITRAL VALVE REPAIR BACKGROUND

Leveraging an Academic-Industry Partnership for Commercial Success

What makes the technology unique?

ABPI response to European Commission consultation on advanced therapy medicinal products

Get a Closer Look. Continuing Support

Modular branched endograft system for aortic aneurysm repair: evaluation in a human cadaver circulation model

Transcription:

MIN T Minima y Invasive New Technologies Advancing minimally invasive therapeutics through novel device development T H E L E O N A M. A N D H A R R Y B. C H A R I T A B L E T R U S T

he Minimally Invasive New Technologies (MINT) Program is an innovative T collaboration between NewYork-Presbyterian Hospital and Weill Cornell Medical College. Through the MINT program, clinicians and engineers develop technologies that advance minimally invasive surgery at NewYork-Presbyterian and beyond.

The Minimally Invasive New Technologies (MINT) Program Inspired Ideas Brought to Life. Inspired Ideas Brought to Life: this is the spirit that drives the MINT program an innovative collaboration between NewYork-Presbyterian Hospital and Weill Cornell Medical College. The program s mission is to develop and bring to market medical devices that will revolutionize the way minimally invasive surgery is performed providing more efficient, effective, and targeted treatment options for patients world-wide. Within the non-profit setting, MINT leverages the creativity and experience of practicing world-class clinicians combined with the knowledge of leading industry experts- from biomedical engineers and biomaterials pioneers to intellectual property experts and business developers. This collaborative, idea-generating environment helps fuel the development of technologies that will transform minimally invasive treatment of gastrointestinal and cardiovascular conditions, and beyond. The MINT Process A structured and rigorous development process guides MINT inventions. From an idea conceived in the operating room, interventional suite, or MINT boardroom, the team evaluates and refines concepts incorporating clinical, engineering, intellectual property, and business strategy perspectives at each phase of the process. Phase 0: Uncovering Unmet Clinical Needs Phase 1: Concept Generation Phase 2: Device Development and Testing Phase 3: Commercialization Clearly defined goals and milestones at each phase enable the MINT team to evaluate project progress and the value created throughout the development process. Scientific and financial advisory boards review both new and ongoing projects and provide valuable input that guides technical and business development, such as: design, concept novelty and patenting, regulatory and reimbursement strategies, proof of concept and preclinical studies, clinical trials, and commercialization.

Examples of Current Projects Endoluminal Surgical Platform (ESP) Current endoscopes provide diagnostic and basic therapeutic capabilities widely used in medicine today, however scope instability within the intestine has prevented clinicians from using endoscopes as true surgical tools. The MINT team has developed an adjunct device to current endoscopes that enables clinicians to create an isolated, stable, and manipulatable zone to enhance visualization and therapeutic capability of the scope. This current iteration of ESP is just the beginning this stabilized zone will become a surgical platform supporting new MINT-developed intestinal procedures performed entirely within the channel of the intestine creating a complete paradigm shift in gastrointestinal surgery. Spider Silk The MINT team is developing a series of novel medical devices based on Spider Silk. Through MINT s partnership with UK-based Oxford Biomaterials, MINT is using this incredibly strong, flexible, and chemically tunable biomaterial to develop new vascular grafts. While many currently available vascular grafts fail shortly after implantation, MINT s Spider Silk grafts promise to better match native vessel properties, better integrate with body tissue, and better resist infection all common problems with current grafts. MINT s arteriovenous access graft in particular represents a potential quantum leap beyond current graft alternatives available to the growing dialysis patient population. The MINT team is also investigating the application of Spider Silk graft technology to several additional markets, including small diameter vascular grafts and vascular patches. Zone Isolation and Bypass System To treat vascular trauma and diseases, the MINT team is developing a unique device that isolates a segment of vessel for endovascular repair while maintaining blood flow to distal arteries. The Zone device permits for the first time true endolumenal vessel repair, made possible by a working channel through which clinicians can introduce endovascular tools to the injury site. Zone also functions as a triage device that can be inserted percutaneously to prepare a patient for transport to a center for advanced treatment. Spherical Device for Cerebral Aneurysms Stenting and coiling are two common endovascular treatments for many types of cerebral aneurysms. However, complex aneurysm geometries or aneurysms located at arterial bifurcations are not adequately treated with existing devices and often require open cranial procedures, which carry with them significant patient risks. The MINT team developed a spherical-shaped device that is ideally suited to treat bifurcation aneurysms and other challenging geometries, redirecting blood flow away from the aneurysms to allow healing. Clinicians can deliver, retrieve, and reposition the Sphere endovascularly, providing significant advantages over stenting and coiling for all aneurysm types.

MINT Program www.nyp.org/mint