swiss biotech an overview - stofficeseoul.ch · swiss biotech association s-ge business ......
TRANSCRIPT
Swiss Biotech – an Overview
South Korea – Swiss Biotech – www.swissbiotech.org
Swiss Biotech Association
Domenico (Nic) Alexakis - CEO
Agenda
▸ Introduction – Stakeholders
▸ Latest Statistics (Swiss Biotech Report 2016/OECD 2012)
▸ SBA – Issues and Activity Fields
▸ Focus: Digital Health
Introduction:
Definition of Biotechnology, the OECD Colour Code
▸ White Biotechnology (industrial BT) ▸ Fermentation and biotransformtion of chemicals and natural products & raw materials.
▸ Red Biotechnology (pharmaceutical BT)▸ Development and production of (bio)pharmaceuticals, vaccines and diagnostics.
▸ Grey Biotechnology (environmental BT)
▸ Identification and decontamination of harmful products.
▸ Blue Biotechnology (marine BT) ▸ Use of marine organisms for pharmaceuticals, nutrition, cosmetics and new materials.
▸ Green Biotechnology (agricultural BT) ▸ Transgenic plants for nutrition and as renewable raw materials for sustainable chemistry.
OECD defines of biotechnology as
‚the application of science and technology to living organisms, as well as parts,
products and models thereof to alter living or non-living materials for the production
of knowledge, goods and services.
Main Players in Swiss BiotechStrategic Level / Structures
SNSF & KTI/CTI
Funding Agencies
Scienceindustries
Swiss Society of
Chemical Industries
SKB / SCCB
Swiss Coordination
Committee for
Biotechnology
Universities
ETHZ / EPFL
UoAppl.Sc.
SBA
Swiss Biotech Association
SAMS & SATW
& SCNAT
Swiss Academies
SIBC
Swiss Industrial
Biocatalysis
ConsortiumBiotechnet
SwitzerlandBiotech Sector
Switzerland
Internutrition
Interpharma
Main Players in Swiss Biotech Promotion (e.g. Swiss Biotech Report)
Statistic Supplier
E & Y Switzerland
CTISwiss Innovation
Promoation Agency
IGESwiss Federal Institute
of Intellectual Property
swiTTSwiss Technology
Transfer
Association
SBASwiss Biotech
Association
S-GEBusiness Network
Switzerland
-----------------------------
Region Clusters
Biotechnet Switzerland
SIXSwiss Exchange
SNSFSwiss National Science
Foundation
S.E.C.A.Swiss Private Equity
& Corporate Finance
Association
History of SBA
▸ VSBU/ASBC founded March 1998 – vote on gene technology
▸ Renamed to Swiss Biotech Association in June 2003
▸ In 2002/03 Biotechnology, a topic with economic development
▸ In 2003 creation of SLSMA (Marketing organisation) – end 2011
▸ Always contact/projects with osec, now S-GE
BaselArea (1/2)
▸Main Industry
▸ Life Sciences: Novartis, Roche, Syngenta, Lonza, Bachem
▸ Chemistry: Carbogen Amcis, Clariant, Huntsman, Solvias
▸ Logistics: DHL/Danzas, Panalpina, Rhenus
▸Key Academic Institutions
▸ University of Basel with Biozentrum
▸ University Hospitals of Basel
▸ ETH Zürich in Basel (Biosystems Science and Engineering)
▸ Swiss Nanoscience Institute, Basel
▸ Friedrich Miescher Institute for Biomedical Research (FMI)
▸ Swiss Tropical and Public Health Institute
▸ University of Applied Sciences Northwestern Switzerland
▸ Initiative: www.baselarea.ch
▸Specialities
▸ International Exhibition and Congress Center (e.g. SBD, MipTec, Ilmac)
▸ Technologiepark Basel with university start-up incubator
▸ „Flagships“(selection)
▸ NBE Therapeutics - Actelion Pharmaceuticals Ltd.
▸ Basilea Pharmaceutica AG - Evolva Holding
▸ 4-antibody AG - Santhera Pharmaceuticals
▸Competitive Advantages
▸ Proximity to Germany and France
▸ “Big Pharma” Connections
▸ High concentration of customs research and manufacturing organizations,
engineering and suppliers
▸ Active Technopark
BaselArea (2/2)
▸Main Industry
▸ Life Sciences, Engineering and ICT
▸ Services and HQ’s
▸ Banking – Stock Exchange SIX
▸Key Academic Institutions
▸ University of Zurich
▸ Federal Institute of Technology (ETHZ)
▸ Universities of Applied Sciences (Wädenswil, Winterthur)
▸ University Hospitals Zürich
▸ lifescience zurich with competence centres, e.g. Functionals Genomics
Center, NCCR Structural Biology, TEDD, SystemsX
▸ Initiative: www.greaterzuricharea.ch
Greater Zürich Area (1/2)
▸Specialities
▸ BIO-TECHNOPARK Schlieren-Zürich
▸ Conferences and Life Sciences seminars
▸ Focused Investment conferences (SACHS)
▸ „Flagships“(selection)
▸ ESBATech / Delenex - Glycovaxyn
▸ Neurotune - Kuros Biosurgery
▸ Molecular Partners AG - Neurimmune Holding AG
▸ Prionics AG - SIX – Swiss Exchange
▸Competitive Advantages
▸ global initiative
▸ internationalisation
▸ financial community
▸ Active technopark
Greater Zürich Area (2/2)
▸Main Industry
▸ Chemical and pharmaceutical
▸ Banking
▸ Textile
▸ Tourism
▸Key Academic Institiutions
▸ Università della Svizzera Italiana, Accademia di architettura
▸ University of Applied sciences
▸ Institute for Research in Biomedicine
▸ Istituto Oncologico della Svizzera Italiana
▸ Istituto delle Molle per la ricerca sull’intelligenza artificiale
▸ Centro Svizzero di Calcolo Scientifico
▸ Initiative: www.biopolo.ch
Biopolo Ticino (1/2)
▸ Specialities
▸ Strong manufacturing and services cluster
▸ Strong clinical settings (public and private)
▸ „Flagships“ (selection)
▸ Cerbios AG - Helsinn SA
▸ Humabs Sagl - IBSA Institut Biochimique S.A.
▸ Micro-Sphere SA - Telormedix SA
▸ Competitive Advantages
▸ Competitive position for research in human immunology
▸ Proximity to Italy
▸ Quality of life
Biopolo Ticino (2/2)
▸Main Industry
▸ Microelectronics / Life Sciences
▸ Watches
▸ Private Banking
▸Key Academic Institiutions
▸ University of Geneva / Lausanne (HUG/CHUV)
▸ Swiss Federal Institute of Technology (EPFL)
▸ Swiss Institute for Cancer Research Ludwig Institute
▸ Swiss Institute for Bioinformatics (SIB)
▸ ISREC, Lausanne
▸ University Hospitals
▸ Initiative: www.bioalps.com
bioalps (1/2)
▸Specialities
▸ joint efforts of academic institutions in Life Sciences
▸ Technoparks / incubators (e.g. Biopôle, Eclosion, Park Scientifique)
▸ „Flagships“ (selection)
▸ AC Immune - Addex
▸ Debiopharm Group - Glenmark
▸ Mymetics - NovImmune
▸ Campus Biotech - Baxter
▸Competitive Advantages
▸ multi-disciplinary research activities (NCCR’s)
▸ international environment
▸ proximity to France
▸ quality of life
bioalps (2/2)
Agenda
▸ Introduction – Stakeholders
▸ Latest Statistics (Swiss Biotech Report 2016/OECD 2012)
▸ SBA – Issues and Activity Fields
▸ Focus: Digital Health
The Swiss Biotech structure of relationship for the
pharmaceutical-diagnostic industry and health care
Source: NTN Swiss BiotechTM, 2016
NCCR facilitate exchanges within Swiss research
National Competence Centers for Research
Source: SNF, 2016
Global pharma sales trends and outlook
Source: EY, Capital IQ, IMS Health, and company financial data, 2016
Page
Life Sciences on SIX Swiss Exchange
Peer group
14/07/2016 34Zurich,
HealthCare ProvidersMedtechPharma Biotech
Steering committee of the Swiss Biotech Report 2016issued since 2003
Domenico Alexakis Seraina Benz Oreste GhisalbaFlorian Fisch
Liv MinderJan Lucht Jürg ZürcherHeinz Müller
Agenda
▸ Introduction – Stakeholders
▸ Latest Statistics (Swiss Biotech Report 2016/OECD 2012)
▸ SBA – Issues and Activity Fields
▸ Focus: Digital Health
The Swiss Biotech Association
▸ Development of optimal framework conditions for the biotech sector:
▸ Representation of the biotech interests to policy makers
▸ Networking of stakeholders at national and international level:
▸ Through the development anbd maintenance of biotechnology-specific platforms
▸ Organisation and participation at national and international events
▸ Dissemination of accomplishments in biotechnology:
▸ To the political audience and the general public
▸ Increase of the visibility at national and international level
▸ Collaboration with strategic partners:
▸ As a member of national and international umbrealla organisation
▸ Through collaborations with life science clusters / initiatives
▸ Broad support form Swiss Biotech companies:
▸ 80% of all Biotech companies in Switzerland are members
Further Activity Fields
▸ Strengthening lobbying capabilities by combining Pharma
and biotech interests, e.g. Regulatory hurdles in CH
▸ Fostering collaborations among biotech, medtech and
pharma
▸ Promoting natural sciences as education & Research
fields
▸ International public affairs
▸ Technology Transfer
Summary - Innovation Instruments CH
26.03.2013 | © SWITZERLAND GLOBAL
ENTERPRISE
Idea Research Development Production Distribution
SNF
CTI projects
CTI Invest
Research Funding
IP Protection
TTStart-up
Pre-clinical
CTI Start-up
Clinical Lead / Target Identification
Proof ofConcept
NDA
SeedFunding
VCPharma
DistributorsAffiliates
Osec
Logistics, Site Investment
AcademiaETH / EPFL, Universities,
Universities of Applied Sciences
IndustryPrivate-Public Partnerships
SwittIPI, WPO
IPIWPO
Swissmedic(Inspection)
SwissmedicEMA FDA
Public Health
Legal ServicesTTOs
Legal ServicesConsultants
Contract R&DBioIT, Suppliers
ClinicalROs
CMOsEquipment suppliers
Engineering
Legal ServicesConsultants
LogisticsMarketing
Organizations
Regulatoryconsultants
Analytical LabsSuppliers
Industrial Biotechnology: Cleantech by Biotech
scienceindustries and Swiss Biotech Association have joined forces to create awareness and develop supportive measures for Cleantech by Biotech in the Swiss chemical-pharmaceutical industry.
Submission of a proposal for a new National Research Program NPF „Cleantech by Biotech“ (June 2011)
Event „Cleantech by Biotech“ (2012)
ProductsProtein, sugar and DNA building
blocks, vitamins, flavors, fragrances and dyes, biopharmaceuticals and
biomaterials, etc.
Technologies & Tools
Communication - Technology Transfer - Education
Sustainable Production
Precursors & raw
materials
How?
Euresearch an association mandated by government
and financed through SBFI
Eursearch is active in promotion and support of project
applicatns.
The SBFI ordinance expected in October 2014 will
organize how the financing of Swiss partners in
collaborative projects (also SMEs) will be managed.
Euresearch is the National
Contact Point for the EEN
Network (Technology Offers &
Requests & Partnering)
Euresearch promotes and informs about
European programmes such as cost,
EUREKA, eurostars, ERA-Net.
The program organization is within SBFI.
Regional offices
Eurostars runs regional offices at
all major universities and
universities of applied sciences
for local support.
Swisscore Brussels
Euresearch is partner of
Swisscore in Brussels.
Agenda
▸ Introduction – Stakeholders
▸ Latest Statistics (Swiss Biotech Report 2016/OECD 2012)
▸ SBA – Issues and Activity Fields
▸ Focus: Digital Health
A personal health record, or PHR, is a health record where health data and information related to the care of a patient
is maintained by the patient.[1] This stands in contrast to the more widely used electronic medical record, which is
operated by institutions (such as hospitals) and contains data entered by clinicians or billing data to support insurance
claims. The intention of a PHR is to provide a complete and accurate summary of an individual's medical history which
is accessible online. The health data on a PHR might include patient-reported outcome data, lab results, data from
devices such as wireless electronic weighing scales or collected passively from a smartphone
Wearables ? eHealth
Digital Health sorgt für Dynamik
16.04.2016
Finanz und Wirtschaft
(Copyright ©2009, Dow Jones & Company Inc.) Neue Anbieter mischen den Markt für Gesundheitsleistungen auf. Fitnessarmbänder boomen. Garmin und Fitbit bieten die Geräte in Massen an. Auch die smarten Uhren, die auf den Betriebssystemen von Apple und Alphabet (ehemals Google) basieren, liefern entsprechende Funktionen. Sportbegeisterte können so den Kalorienverbrauch und die
zurückgelegte Strecke nachverfolgen. Der wahre Nutzen liegt jedoch in den Daten, die so generiert werden und mit denen sich Rückschlüsse auf den Gesundheitszustand ziehen lassen. Das Schlagwort heisst Digital Health. «Im Gesundheitssystem liegt die Zukunft in der Digitalisierung», ist sich Stefan Blum, Medtech-Portfolio-Manager des Fondsanbieters Bellevue Asset Management, sicher. Fitnessarmbänder sind nur der erste spielerische Schritt dazu. Die Unternehmen aus dem Gesundheitssektor haben die Digitalisierung lange verschlafen. Neue
innovative Akteure drängen deshalb in den Markt. Ziel ist längst nicht mehr nur der Wellness-Bereich. Die «jungen Wilden» versuchen sich speziell in der Diagnostik und in der Überwachung von Patienten zu etablieren. Neue digitale Ansätze in diesen Disziplinen könnten das
Gesundheitssystem insgesamt effizienter machen. Die Anbieter wiederum erhalten zusätzliche Daten, die sich zu Wissen verarbeiten lassen. «Mehr Wissen führt zu mehr Innovation, und Innovation bedeutet einen Wettbewerbsvorteil», sagt Blum.
Gefragt sind Kooperationen Ganz ohne Hilfe schaffen es die Herausforderer dann aber doch nicht. IT-Spezialisten sind auf das Fachwissen aus dem Gesundheitssektor angewiesen. Umgekehrt fehlt der Gesundheitsbranche das Know-how für die Verarbeitung von Daten zu Informationen. Vertreter aus beiden Sektoren arbeiten deshalb zusammen. So unterhält Alphabet heute mit den Pharmakonzernen Novartis und
Sanofi Partnerschaften mit dem Ziel der Entwicklung neuer permanenter Überwachungslösungen von Diabetespatienten. Doch Alphabets Vision greift weiter. Die Gesellschaft hat mit ihrer eigens gegründeten Life-Science-Sparte auch den Diagnostikmarkt im Visier. Sie arbeitet mit bislang ungenannten Partnern an einer Technologie, die dereinst Gene in Echtzeit entschlüsseln soll und konkurrenziert so Roche, den Primus in der Labordiagnostikbranche. Damit ist der gleich doppelt gefordert. Das US-Unternehmen
Illumina ist den Schweizern seit geraumer Zeit mit ihren Hochgeschwindigkeits-Gensequenzierungsgeräten technologisch voraus (vgl. Artikel links).
Krebstest für alle Nun geht Illumina sogar noch einen Schritt weiter. Sie hat im Januar die Gesellschaft Grail
gegründet, angelehnt an den Heiligen Gral, den es in der Onkologie zur Heilung zu finden gilt. Bis 2019 will Grail einen neuen Bluttest zur frühzeitigen Identifikation aller möglichen krebsverursachenden Genmutationen entwickeln. Damit könnten künftig standardmässig bereits vermeintlich gesunde Patienten auf die Gefahr einer Krebserkrankung getestet werden. Das Projekt ist angesichts der Zeitspanne zwar ambitioniert. Würde es jedoch gelingen, wäre letztlich nicht nur Roche gefordert, sondern auch die Anbieter bildgebender Diagnostik wie Siemens oder Philips. Deren Geräte wären dann ebenfalls weniger gefragt.
Illumina kann bei Erfolg jedoch nicht nur den Absatz ihrer eigenen Geräte steigern: «Die Technologie generiert auch eine Vielzahl an zusätzlichen Daten, die potenziell Rückschlüsse auf neue Behandlungsansätze zulassen», sagt Blum. Sie könnten dann teuer an die Pharmakonzerne verkauft werden. Roche hat das als einer der wenigen Arzneimittelhersteller erkannt. Die Gesellschaft versucht deshalb durch den Zukauf von Krebsdatenplattformen wie Foundation
Swiss Connections – Big data: Roche, Novartis, Merck
and innovative SME’s
▸ Digital transformation is happening now:
▸ Merck optimises production failures with Hadoop
▸ Novartis cooperates with google
▸ Roche strategically with Foundation Medicine (FM) (57%)
▸ GE JV with ETHZ www.inspection-robotics.com
▸ www.sequanamidecal.com
ShortList
Alpha SprachweltAXA WinterthurInterioSanitasSwiss LifeVictorinoxWincasa
Organiser of the competition
Smart scalpel knows the difference between healthy and
tumorous tissue – April 2016
The smart scalpel has been tested on artificial tissue with what the researchers claim to be
excellent results.
For a brain surgeon, telling tumorous tissue from healthy tissue can be tricky business in the
middle of a procedure, with potentially disastrous repercussions if mistakes are made.
Looking to give these doctors a helping hand, scientists have designed a smart scalpel that
provides real-time guidance on whether the tissue it is tending to is cancerous or otherwise.
The new tool is the same size of a regular scalpel, but features a spherical tip on the end.
Inside are sensors that gauge the mechanical properties of the tissue and, within around 400
milliseconds, present the surgeon with visual or audio cues to indicate its health.
"The technology of the device is based on self-sensing actuators using piezoelectric
transducers," David Oliva, who developed the device at the Belgium's Free University of
Brussels, explains to Gizmag. "The self-sensing actuator generates vibration on the tip of the
instrument. When the device is touching brain tissue, the vibration is induced into the brain
tissue and the device realizes the estimation of the mechanical properties, then this
measurement is compared to a reference value previously taken on a well known healthy area
to determine if there are changes in the consistency of the tissue. The process is, therefore, a
tissue differentiation evaluation."
While MRI and ultrasounds can pinpoint the whereabouts of a brain tumor prior to an
operation, various factors can lead doctors to lose its position once the surgery commences,
especially when dealing with early stage tumors which can look much like healthy tissue. In
this scenario, doctors are left to use microscopic observations or go poking around with tissue
manipulation tools.
In 2013, researchers at the Imperial College London developed a similar knife that uses mass
spectrometry to assess clouds of biological smoke emitted from surgical incisions and sniff
out signs of cancer. And way back in 2000, researchers developed a scalpel that can detect
cancer by searching cell populations for abnormal protein content.
So a tool that offers neurosurgeons a higher level of precision when carrying out these
procedures has been in the works for some time. About six years in the making, this latest
take on the smart scalpel has been used on artificial tumors and pig brain tissue with what the
researchers claim to be "excellent results."
According to Oliva, who developed the scalpel in collaboration with German neurosurgeon
Dr Ralf Stroop, it is designed specifically to tackle early stage brain tumors that are visible
through an MRI but not in the operating room. He says that the technology could also be
adapted to detect tumors in other parts of the body, and that the early testing has demonstrated
its suitability for human trials.
Bypassing spinal cord lets paralyzed man control own
hand courtesy of Nature
While Burkhart's early progress is hugely promising, the
researchers hope that it is just a sign of things to come.
Using a specialized sleeve, his own mind and a brain-implant
smaller than a pea, a man paralyzed from the neck down has
regained the ability to handle a variety of everyday objects. The
researchers say the success of the technology, which bypasses
the injured spinal cord, offers "realistic hope" to others with
similar disabilities, with the team planning to expand the trial to
include new patients in the coming months. After becoming
paralyzed in a diving accident six years ago, 24-year-old Ian Burkhart
volunteered to take part in a trial at Ohio State University to explore the
effectiveness of what is described as a neural bypass system. Dubbed
NeuroLife, the technology involves a tiny micro-chip sensor implanted
into the motor cortex area of the brain, the region responsible for the
movement of arms and hands.
This sensor tracks neural impulses from the brain and is hooked up to
a computer, which uses algorithms to decode and translate them into
electrical signals. These signals are then relayed to a purpose-built
sleeve that contains electrodes to stimulate muscles in the arm.
Burkhart and the NeuroLife system made headlines in 2014, when he
became the first quadriplegic to move his fingers and hand using his
own thoughts. But the hard work didn't stop there, and the progress
Burkhart has made in the meantime is quite remarkable.
While the initial breakthrough gave Burkhart the ability to pick up and
hold a spoon, after hundreds of therapy sessions he can now use the
NeuroLife system to perform a number of tasks, including picking up a
phone, stirring a drink, swiping a credit card and playing a guitar video
game similar to Guitar Hero.
"Several years after a spinal cord injury, his level of
functioning has improved significantly so he's able
to have more use of his fingers and hands to do
functional tasks, which has not been demonstrated
before," says Dr Ali Rezai, who implanted the chip
in Burkhart's brain in 2014.
The more Burkhart uses the system the more it
learns from his brainwaves and the more he learns
to control his movements. And while this early
progress is hugely promising, the researchers hope
that it is just a sign of things to come. They have
identified four other candidates for the NeuroLife
system, the first of which is scheduled to take part
in the study this US summer. Eventually, they hope
to improve the technology to make it less
cumbersome and to assist people who have
suffered strokes and other brain or spinal cord
injuries.
"We're hoping that this technology will evolve into a
wireless system connecting brain signals and
thoughts to the outside world to improve the
function and quality of life for those with
disabilities," says Rezai.
You can see Burkhart using the system in the video
below. The research was published in the journal
Nature.
The Swiss Biotech structure of relationship for the
pharmaceutical-diagnostic industry and health care
Source: NTN Swiss BiotechTM, 2016