Rethinking the biopharmaceutical value creation and business model
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Transcript of Rethinking the biopharmaceutical value creation and business model
deep innovation
Connected Life: the global future
Dr. Thomas Wilckens, deep innovation GmbH Euroforum, November, 2012
The convergence of mobile with ICT: Disrupting the biopharmaceutical industry
deep innovation
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Disruptive Innovations in Pharma: Gamechangers of previous business models
Industrialisation of drug development during WWII
New R&D technologies New therapeutic principles New alliances
New competition New marketing strategies New alliances
deep innovation
mhealth: a global trend and/or necessity?!
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mhealth refers to the use of mobile communication and devices for providing healthcare services or achieving health outcomes mHealth comprises wellness, fitness and medical services (prevention & treatment)
Olympians trade data for tracking devices
July 26th, 2102
WHO/UN constitute the requirement for intelligent, mobile health care support systems to appropriately address the world increasing health care challenges UN Resolution A/66/L.1 16th, September 2011 on NCDs
deep innovation Connected life by 2020: Creating opportunities by cross-industry operations
deep innovation Mobile ICT Technologies: Gamechanger and Enablers mobile technologies induce disruptive innovation
LTE/4G Networks: Ubiquitous & 5x faster than UMTS
Attributes of the world population: • only 70% access to clean water • 90% lack access to medical treatment • 90% accessible via mobile technologies
MD mobile/wireless adoption (USA)
Tablets
Smartphones
deep innovation Decentralization versus Centralization: mobile computing as disruptive innovation
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Centralised IT-technologies only for few solvent clients
Ubiquitious access disrupted exitisting business models, industries and society
deep innovation Decentralisation in diagnostics & therapeuticals: mobile computing, cloud technologies and POC drive disruption
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The disruption off healthcare by mobile, wireless ICT is just at the beginning
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mobile ICT will disrupt existing business concepts IBM‘s transition in the 90ties as a role model for Pharma?
Pharma’s future business model?: • Drug development & marketing
mobiIe ICT enabled opportunities : • Improving efficacy in R&D • Disease management including QM • Disease prevention and health management • Value added services (VAS)
IBM‘s change from a pure IT company to services and high tech innovation: • driven by technological disruption • PC = smaler, cheaper, eabling access to new clients • New players, new competition, new business concepts
How will the health care market look like in the future? Who will reign the world of health care in 2030?
deep innovation
communicable versus non-communicable diseases
Exponential population growth
Lack of infrastruture and organised health care systems
Lack of MDs (worldwide 200k WHO, 2011)
90% access to mobile
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The world‘s health care crisis
Increase requirement for prevention & treatment
Exponential growth of costs
Continued lack of access; increased disease burden
Thread of increased gap in access to health care between economies
Opportunities for mhealth technologies
Framework: Consequences:
deep innovation The route to precision medicine: mobile ICT & Big Data (new) as gamechangers
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Symptom-based
(Trial & Error)
Rules-based
Pattern-based
Intuition Medicine
Precision (Personalized)
Medicine
Evidence-based
Medicine
Yesterday & emerging markets Today
Tomorrow
With the advent of mobile ICT enabled solutions, emerging markets will leapfrog western world today‘s medicine and create new business models
Available data sets
Action
*omics
mobile ICT Big-data
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Dada Mining, Expert System, Therapy, Context
matching
Data management, Personal health records
Monitoring, Analytics, distributed, secure data
storage and „HealthSecurity“
Mobile und portable vital data measurement,
Preprocessig and control
CASE-specific: User interface, Data representation, Alarm,
Parameters
Data transport, near field communication, mobil and fix
Non invarsive Sensoric
Lab on a chip Technologies
Pilo
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The mobile diagnostics/monitoring technology & value map Structure, competences, plattforms, up-scaling & value added services (VAS)
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Ho
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User- and administration interface Value added services (VAS) and APPs
Central platform functionalities with general application features; i.e.: • Secure data collection, storage, managment and
extraction/analysis • Monitoring and alarm • Personalised health records • Expertsystems for datamining, epidemiologic analysis,
therapeutic decisions etc. • Datatransmission via operator
Target case specific diagnostics/sensor and actuator at the frontend • Single point measurment • Repeated measurement (chronic monitoring) • Continuous measurement and monitoring
Standard Integration Core Tech Partners UseCase spec. Frontend tech
Non invasive sensors
VAS create a new and sustainable business opportunity for early adopters
deep innovation mICT driven disruption enables access to health care: Convergence of technologies, i.e. innovation creates business opportunites
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Lab-on-paper (LOP)
Novartis/Proteus‘ compliance management: • New alliances form new business models • Innovation requires new alliances
Harvards‘ cheap POC diagnostics: • Diagnostics are an essential prerequisite for
appropriate treatment Caveat: • Where does the diagnosis come from?
Who will advice the treatment?
New POC/companion diagnostics will only create value in combination with mobile ICT and intelligent data management & value added services (VAS)!
Intelligent pill & compliance: eatable microelectronics
deep innovation Use case, mobile point-of-care diagnostics (mPOC): Reducing costs and enabling new clinical trial strategies & theranostics:
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Secure data management
Data collection and secure transmission
Data reporting end remote
entree
Administration, Control, Monitoring, Exception Handling
Increasing challenges: Costs per drug trial 400 -1200k€ Increased number of patients required Extended trial durating
Selected advantages of mLOC • Reduced monitoring costs • Enabling new recruitment • Enabling remote patient enrolement
Potential for cost reduction 20-50% per trial
Proof of concept: Pfizer established FDA-approved first virtual mobile trial POC
Mobilized analytics instead of repeated trial center visits
Advantage of Pharmapartnering: non-regulated market with pressing innovation need
deep innovation Impact of mobile ICT on Pharma‘s business model: remote, real-time 24/7 access to patients and data
Who pays, when, what,
why?
deep innovation Showcase diabetes management as an example: Integrated service concepts: Drug, device, services
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Wireless, needle-free, continuous glucose monitoring
Implantable sensors
Wireless controlled insulin pump
Who will pay for costly high end products in „old“ regulated markets? Are these concepts suitable for globalisation/glocalisation?
deep innovation
Indian Researchers To Develop Affordable Diabetes Test Strips; 09 Nov 2011 Health Minister : "Diabetes is highly prevalent in the country and the strip to measure sugar level is imported as it is patented abroad and it costs Rs 30." (ca. 42ct)“. Turkey (10,7million patients, reembursement reform 3/2012): Support for meters in : 20TL = 9€; Support per strip: 0,32 TL = 14ct
Diabetes Management, what‘s next? High end solutions for established markets & emerging markets?
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Solutions for emerging markets? Novartis/IBM challenge winner: Dr. Diabetes for China - ESADE Business School-Universidad Ramon Llull
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3 examples for Reverse Innovation: Innovative products will also disrupt „old“ health care markets
Lab on paper
Local Projectstart 2000 Market Entree 2006
US Market Entree 2010
Egypt Market Entree 2008
Project Start 2006
EU Market Entree 2012
1 GE‘s mobile Ultrasound
2 Harvard‘s Lab-on-paper
3 ePayment
1 developed and 1st marketed in China
2 developed in USA, POC ongoing in Africa
3 developed in the EU, introduced 1st in Africa
deep innovation
Optimized disease management in emerging and „old“markets; i.e. efficient and affordable:
Selected objectives (starting from scatch appying Reverse Innovation principles):
mobile ICT & POC: enabling access to health care Generate problem-oriented solutions within a contextual framework
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1. Market-specifically tailored diagnostic devices (test-strips, mReaders, sensors….)
2. Integrated algorithm-based dosing management (cloud-based and/or Smart Phone)
3. High end versus low end versions for regional markets and/or client groups
4. Remote/mobile QM and disease management services in a cultural context
5. Low energie, ecologically neutral
6. Culturally adjusted value-added-services (VAS)
7. Identify general principles applicable from fever diagnostics to chronic condition management
8. Adjust for (re-) introduction into „old“ markets
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optimized exploitation of Pharma‘s core competencies & ressources
deep innovation
Munich Network 19
mobile ICT technologies disrupt existing business New opportunities for innovative technologies and value added services
Prevention, Early diagnostis, Monitoring
Personalized Medicine, Theranostics
Point of Care Diagnostics
New products and services
N
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Mo
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Present Future
deep innovation Anticipating the convergence of all aspect of life mobile computing, sensors, diagnostics, health/fitness/wellness apps
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Mobile computing
Connected diagnostics/monitoring
deep innovation
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The best way to predict the future is to invent it! Vinod Khosla, Founder of Sun Microsystems, Serial Entrepreur & Health Care Investor
deep innovation
Intelligent pill; eatable microelectronics
Mobile ICT Technologies: Gamechanger in Medicine mHealth examples and anticipated products
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Intracutane nanoparticles Calcium-Glucose
Litium, Biohazard
LOP Livertox-test
Air pollution
Bloodcellanalysis
Lab-on-paper (LOP)
deep innovation Deficit compensation: Anticipating the next level of remote controlled sensors & devices
Implantable MEMS
Epidermal electronics
Intelligent sensor & augmented realitly
after partially detach from the skin
Bantenna LED
wireless power coil RF coil
temp. sensorstrain gauge
RF diode ECG/EMG sensor
0.5mm
after fully detach from the skin
attachedto skin
detachedfrom skin
silicone
crumpled circuit
5mm
3mm
silicone(~50 kPa)
PI
PIdevice
NMP
30µm
7µm
deep innovation
Systems inefficiency as percent of total economic value by system Big data drive excellence and efficacy
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Potential for improvement in health care app. 2 Trillionen US$ Source IBM
Economic efficiency from data acquisition, storage, extraction and analysis Optimal field for innovative services and novel business models based on
Mobile & wireless ICT
18%
deep innovation
Department of Homeland Security's National Cybersecurit (USA, 16.05.2012):
„Medical devices and smartphones can expose patient data and also lead to cyber-security problems, the Department of Homeland Security warned.”
• The health care industry's adoption of mobile technology poses certain security risks to health data,
according to a report by the Department of Homeland Security, Government Computer News reports (McCaney, Government Computer News, 5/16).
• DHS' National Cybersecurity and Communications Integration Center issued the report, titled, "Attack Surface: Healthcare and Public Health Sector" (Horowitz, eWeek, 5/16).
About the Security Risks: • The report stated, "Since wireless medical devices are now connected to medical IT networks, IT networks are
now remotely accessible through the medical device.“ It added that "communications security of medical devices to protect against theft of medical information and malicious intrusion is now becoming a major concern" (Kurtz, Becker's Hospital Review, 5/17). Read more: http://www.ihealthbeat.org/articles/2012/5/18/dhs-mobile-technology-poses-security-risks-to-health-data.aspx#ixzz1vUKg1pc9
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The callenge: Data safety and security; see also ICT Summit 2012, Dec. 6th Munich 2011
deep innovation
Critical health risks and cost drivers: • Transition from ICU to general unit:
Wireless Sensors Relay Medical Insight to Patients and Edwards, J. Signal Processing Magazine, IEEE Volume: 29 , Issue: 3 Digital Object Identifier: 10.1109/MSP.2012.2183489 Publication Year: 2012 , Page(s): 8 - 12
• Transition from the clinic to home: Strategies To Cut Costs Integrated Telehealth And Care Management Program For Medicare Beneficiaries With Chronic Disease Linked To Savings; doi:10.1377/hlthaff.2011.0216 Health Aff September 2011 30:1689-1697;
Integrated mHealth solutions have proven to reduce readmission to both, ICU or hospital Seemless data management between health care providers further contributes to improved and cost effective patient management and secures improved quality services Caveat: Succesful technical implementation requires converging competencies ranging from datatransfer over device energy management to safety/security solutions combined with user friedly value added servides (VAS).
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Use case, improving health care efficacy: Seemless monitoring & Point of Care diagnostics