Medical Intelligence and Innovations Institute (MI3) Glossary 2016 Anthony C. Chang, MD, MBA, MPH 1/5/2016 2:04 PM Page 1 Anthony C. Chang, MD, MBA, MPH Chief Intelligence and Innovation Officer Director, Medical Intelligence and Innovations Institute (MI3) Children’s Hospital of Orange County [email protected]M EDICAL I NTELLIGENCE AND I NNOVATION I NSTITUTE (MI3) C OMPENDIUM AND G LOSSARY
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Medical Intel l igence and Innovations Institute (MI3) Glossary 2016
Anthony C. Chang, MD, MBA, MPH 1/5/2016 2:04 PM Page 1
Anthony C. Chang, MD, MBA, MPH
Chief Intelligence and Innovation Officer
Director, Medical Intelligence and Innovations Institute (MI3)
INNOVATION INSTITUTE (MI3) COMPENDIUM AND GLOSSARY
Medical Intel l igence and Innovations Institute (MI3) Glossary 2016
Anthony C. Chang, MD, MBA, MPH 1/5/2016 2:04 PM Page 2
Genomic Medicine and Personalized Medicine
Genomic medicine stems from Mendel’s seminal work on heredity and the completion
of the Human Genome Project in 2003. Genomics is the study of functions and
interactions of all the genes in the genome, not just of single genes as in genetics. With
the advent of microarray technologies and next generation sequencing and
their powerful application in genomewide association studies, genomic medicine
has become now an even more essential part of medicine, and in particular,
personalized and precision medicine. Currently, there is considerable controversy
around neonatal genomic sequencing and its bioethical implications.
References
Aspinall MG et al. Realizing the Promise of Personalized Medicine. Harv Bus Rev 2007; 85(10): 108-117.
Feero WG et al. Review Article: Genomic Medicine- An Updated Primer. N Engl J Med 2010; 362: 2001-11.
Guttmacher AE et al. Review Article: Genomic Medicine. N Engl J Med 2002; 347: 1512-1520.
Hudson KL. Review Article: Genomics, Health Care, and Society. N Engl J Med 2011; 365: 1033-1041.
Manolio TA. Genomewide Association Studies and Assessment of the Risk of Disease. N Engl J Med 2010; 363: 166-176.
Medical Intel l igence and Innovations Institute (MI3) Glossary 2016
Anthony C. Chang, MD, MBA, MPH 1/5/2016 2:04 PM Page 3
Regenerative Medicine and Stem Cells
Regenerative medicine has until recently been loosely associated with use of
embryonic or mesenchymal stem cells, the latter with wider acceptance due to
availability, immunomodulatory properties, low immunogenicity, and therapeutic
potential. While use of stem cells in a myriad of diseases is extensive in adults, there is
yet very little experience with stem cells in children. Possible therapeutic targets in the
future include graft-versus-host disease, cardiovascular disease, inflammatory bowel
disease, lung disease, and autoimmune disease. Regenerative medicine is now also
discussed in the context of organ printing with tissue building blocks called
spheroids. There is promise in the early experience with tissue engineering in
children.
References
Borghesi A et al. Stem Cell Therapy for Neonatal Diseases Associated with Preterm Birth. J Clin Neonatol 2013; 2(1): 1-7.
Mironov V et al. Organ Printing: Promises and Challenges. Regenerative Medicine 2008; 3: 93-103.
Rosenthal N. Review Article: Prometheus’s Vulture and the Stem Cell Promise. N Engl J Med 2003; 349: 267-274.
Zheng GP et al. Mesenchymal Stem Cells in the Treatment of Pediatric Diseases. World J Pediatr 2013; 9(3): 197-211.
Medical Intel l igence and Innovations Institute (MI3) Glossary 2016
Anthony C. Chang, MD, MBA, MPH 1/5/2016 2:04 PM Page 4
Pediatric Nanomedicine
Nanotechnology is defined as design and application of materials and systems in the 1
to 100 nm range. The relatively large ratio of surface area to volume is a common
feature of nanomaterials. Nanomaterials in clinical trials or are FDA-approved include
liposomes, dendrimers, and gold nanoparticles while nanomaterials that are in
proof-of-concept research stages include gold nanorod, quantum dot, fullerene,
and carbon nanotube. Present adult clinical applications for nanomaterials include
MRI contrast agent, in vivo diagnostics, laboratory-on-a-chip, or as drug carriers in
cancer therapy, but there remains very little experience in the pediatric population.
References
Bourzac K. nanotechnology: Carrying Drugs. Nature 2012; 491(7425): S58-60.
Kim BYS et al. Current Concepts: Nanomedicine. N Eng J Med 2010; 363:2434-2443.
Krishnan V et al. Clinical Nanomedicine: A Solution to the Chemotherapy Conundrum in Pediatric Leukemia Therapy. Clin Pharmacol Ther 2013; [Epub ahead of print].
McCabe ER. Nanopediatrics: Enabling Personalized Medicine for Children. Pediatr Res 2010; 67(5): 453-457.
Medical Intel l igence and Innovations Institute (MI3) Glossary 2016
Anthony C. Chang, MD, MBA, MPH 1/5/2016 2:04 PM Page 5
Robotics and Robotic Surgery
Robotic technology, developed in part by DARPA, has escalated in health care during
the past decade. While robotics involve the use of robots or robotic devices for tasks
such as cleaning or lifting, robotic surgery involves the surgeon using a console to
operate remote-controlled robotic arms and surgical tools. Majority of the robotic
surgery procedures are laparoscopic procedures or open surgical procedures and
these procedures are now relatively commonplace in most pediatric centers. As in
adults, feasibility and safety of robotic surgery in children still need to be assessed.
New horizons for robot-assisted therapy include rehabilitation and even wearable
exoskeletons for handicapped children as well as social robots for psychosocial
purposes.
References
Barbash GI et al. New Technology and Health Care Costs- The Case of Robot-Assisted Surgery. N Engl J Med 2010; 363: 701-704.
Fasoli SE et al. New Horizons for Robot-Assisted Therapy in Pediatrics. Am J Phys Med Rehabil 2012; 91(11 Suppl 3): S280-289.
Van Haasteren G et al. Pediatric Robotic Surgery: Early Assessment. Pediatrics 2009; 124(6): 1642-1649.
Medical Intel l igence and Innovations Institute (MI3) Glossary 2016
Anthony C. Chang, MD, MBA, MPH 1/5/2016 2:04 PM Page 6
Medical Devices and Mobile Technology
The advent of remote monitoring with smart wearable systems (SWS) has raised
interest for adult chronic care for heart failure, diabetes, and ambient assisted living.
The combination of escalation of health care costs and availability of microsensors
and smart fabric has accelerated this potential of continuous, multi-parameter
physiologic home remote monitoring of health, activity, and mobility. Wireless
sensor networks (WSN) are also becoming more ubiquitous for telemedicine
applications. A new generation of partially or even fully biodegradable implants
with resonators made of biodegradable polymer composites is emerging. There is no
published wearable monitoring experience in children to date. In addition, this mobile
health revolution includes the proliferation of mobile medical applications (“apps”)
which has also penetrated the pediatric care venue.
References
Chan M et al. Smart Wearable Systems: Current Status and Future Challenges. Artif Intell Med 2012; 56(3): 137-156.
Eng DS et al. The Promise and Peril of Mobile Health Applications for Diabetes and Endocrinology. Pediatr Diabetes 2013; 14(4): 231-238.
Regalado A. The Era of E-Medicine. MIT Technology Review; September, 2011.
Medical Intel l igence and Innovations Institute (MI3) Glossary 2016
Anthony C. Chang, MD, MBA, MPH 1/5/2016 2:04 PM Page 7
Artif icial Intell igence and Big Data
The IBM Watson supercomputer (with its 500 gigabytes per second capability)
heralded use of artificial intelligence (AI) in medicine with the defeat of human
Jeopardy! contestants in February of 2011. An early success in the use of AI in
medicine was the rules-based medical diagnosis system MYCIN. Classical AI
techniques include expert systems, fuzzy logic, knowledge representation,
data mining, and machine learning while modern AI methodologies include
based reasoning, data visualization, and natural language processing. With
computer capabilities exponentially rising and the vast amount of health care data
escalating into Big Data, AI will be an integral part of a data revolution in this era of
health care reform.
References
Chang AC et al. Artificial Intelligence in Pediatric Cardiology: An Innovative Transformation in Patient Care, Clinical Research, and Medical Education. Cong Card Today 2012; 10: 1-12.
Hanson CW et al. Artificial Intelligence Applications in the Intensive Care Unit. Crit Care Med 2001; 29: 427-435.
Hey T. The Next Scientific Revolution. Harv Bus Rev 2010; 88(11): 56-63.
Ramesh AN et al. Artificial Intelligence in Medicine. Ann R Coll Surg Engl 2004; 86: 334-338.
Whitby, B. Artificial Intelligence: A Beginner’s Guide. A Oneworld Book, Oxford, 2003.
Medical Intel l igence and Innovations Institute (MI3) Glossary 2016
Anthony C. Chang, MD, MBA, MPH 1/5/2016 2:04 PM Page 8
Innovation in Health Care Delivery
Innovation, defined simply as an idea transformed into impact, has been especially
difficult to execute in health care. In his seminal works on innovation, Clayton
Christensen of the Harvard Business School emphasizes the key elements in
successful innovation as observed at Apple and Google: associating, questioning,
observing, networking, and experimenting. The current state of elevated cost and
delivery inadequacies offer endless opportunities for disruptive innovation in health
care. In the future, there will be concentrated efforts for innovation in all children’s
hospitals. Finally, technological innovation needs to be efficaciously coupled with
access to avert further expansion of health care disparities in children.
References
Dyer J et al. The Innovator’s DNA: Mastering the Five Skills of Disruptive Innovators. Harvard Business School Publishing, Boston, 2011.
Herzlinger RE. Why Innovation in Health Care is so Hard. Harv Bus Rev 2006; 84(5): 58-66.
Kaplan RS et al. How to Solve the Cost Crisis in Health Care. Harv Bus Rev 2011; 89(9): 46-52.
Wise, P. Emerging Technologies and Their Impact on Disability. Future Child 2012; 22(1): 169-191.
Medical Intel l igence and Innovations Institute (MI3) Glossary 2016
Anthony C. Chang, MD, MBA, MPH 1/5/2016 2:04 PM Page 9
The World in 2040: A Brief Glimpse
The world’s population is expected to surpass 9 billion by the year 2040 with an
escalating number of older people to over 1 billion. The geopolitical map will
involve major shifts away from Europe and the U.S. as the power axis and towards Asia
and the Middle East as the emerging powers; further globalization, however, partly
mitigates the influence of any potential superpower. Major terrorist attacks will
continue but less in the form of traditional weapons of mass destruction as security
measures in the form of drones and sensors with artificial intelligence constantly thwart
these attempts but more in the newer modality of cyber warfare.
Our environment and climate change is an issue that will continue to be critical in the
coming decades. Cities will be designed to have zero emissions and houses will be
smart with temperature and sunlight microsensors that will self-adjust based on the
ambient environment. Despite the green measures, global warming will lead to
flooding of large coastal cities in certain parts of the world. Some food will be grown
in natural habitats vertically as well as produced synthetically via biological printing
devices. Clean water will be plentiful from new nanotechnology that concomitantly
desalinate and purify water.
Our daily lives will be made easier by the emergence of technological advances. Daily
household tasks will be performed by personal robots with dexterity and autonomy.
Obligate travel is facilitated by autonomous electric vehicles fully equipped with
sensors under satellite control while leisure travel will involve transcontinental flights
that will only be a few hours as well as routine space travel to the moon and nearby
planets. Virtual vacations also enable the average person to travel in the form of an
avatar to myriad of time periods.
There will be less people going to a work location as virtual work environments
increase. Knowledge workers rapidly replacing those with manual skills as robots
proliferate. All levels of education will be virtual and widespread and shifting away
from the traditional campus paradigm. Knowledge is easily acquired with the use of
software agents that gather data and information. Books and even laptops/desktop
computers will be replaced by multimedia clips that are readily available in the form of
augmented reality via a visual device.
Medical Intel l igence and Innovations Institute (MI3) Glossary 2016
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References
Canton, J. The Extreme Future: The Top Trends That Will Reshape the World for the Next 5, 10, and 20 Years. The Penguin Group Inc, New York, 2006.
Diamandis PH. Abundance: The Future is Better Than You Think. Simon and Schuster, New York, 2012.
Ebert, U. Life in 2050. Beltz and Gelberg, Munich, 2011.
Friedman, G. The Next Decade. Doubleday, New York, 2011.
Kaku, M. Physics of the Future: How Science Will Shape Human Destiny and Our Daily Lives by the Year 2100. Anchor Books, New York, 2011.
Kurzweil, Ray. The Singularity is Near. The Penquin Group, New York, 2005.
Muhhall D. Our Molecular Future: How Nanotechnology, Robotics, Genetics, and Artificial Intelligence Will Transform Our World. Prometheus Books, New York, 2002.
Schmidt S. The Coming Convergence. Prometheus Books, New York, 2008.
Smith LC. The World in 2050: Four Forces Shaping Civilization’s Northern Future. Penguin Group, New York, 2010.
Standage T. The Future of Technology. The Economist, London, 2007.
Watson, R. Future Files. Nicholas Brealey Publishing, London, 2012.
Medical Intel l igence and Innovations Institute (MI3) Glossary 2016
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PEDIATRICS2040 and Its Predictions
As we head into the second quarter of this 21st century, these are the possible 20
trends and developments in the medical and health care for children:
1. Genomic medicine becomes routine and commonplace with genomic
sequencing affordable and part of personalized and precision medicine;
2. Diagnoses will no longer be at the tissue or organ levels but rather at the
molecular and genetic levels with repairs at the cellular level;
3. Regenerative medicine and stem cells with 3-D bioprinting technology render
replacement organs and body parts easily accessible;
4. Pediatric nanomedicine becomes a hot area of clinical and basic science
research with many breakthroughs for cancer therapy and others;
5. A comprehensive universal vaccine will be available for all infectious diseases
and be given to all children all over the world;
6. Robotic science allows routine pediatric care to be delivered by smart robots
with precision and autonomy as well as dexterity;
7. Handicapped children will be fitted with mobile exoskeletons rather than being
in wheelchairs or with crutches;
8. Robotic surgery using augmented reality becomes routine and safe and even
replace surgeons for some simple surgical procedures;
9. Advanced radiologic imaging will be routinely three-dimensional and be
interpreted by artificial intelligence software with few diseases amenable to
ultrasound therapy;
10. Chronic pediatric care is facilitated by a myriad of wearable smart system of
physiologic sensors and laboratory on a chip;
Medical Intel l igence and Innovations Institute (MI3) Glossary 2016
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PEDIATRICS2040 and Its Predictions (continued)
11. Microprocessor technology for vision and hearing will enable children who are
blind and deaf to see and hear for the first time;
12. Electronic databases are queried easily by health care workers using human
language and natural language processing to yield meaningful answers;
13. Artificial intelligence (AI) in a myriad of forms is utilized widely in the hospital
under the guidance of the chief intelligence officer, who is trained in AI;
14. Children’s hospitals all have innovation centers headed by a chief innovation
officer who overlooks innovation projects;
15. Patients and families are empowered with their own medical data and provide
input into their decision-making as well as lead clinical research trials;
16. Advances in vaccine technology and decreases in poverty level prolong the
average lifespan of third and fourth World countries to close to 85 years;
17. Children with psychosocial disorders are helped by virtual assistants who
diagnose and interact with them through their disease process;
18. Emphasis on heart health and new medications as well as continual biomarker
monitoring result in drastic decreases in childhood obesity and diabetes;
19. The aging world population creates a further shift in health care resource
allocation away from pediatric patients and increase demand for robotic
support;
20. Homes supported by virtual visits become more capable of managing critically-
ill children and children’s hospitals become short-term diagnostic facilities.
Medical Intel l igence and Innovations Institute (MI3) Glossary 2016
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References
Barker R. 2030: The Future of Medicine. Oxford University Press, Oxford, 2011.
Hamburg MA et al. The Path to Personalized Medicine. N Engl J Med 2010; 363(4): 301-304.
Hanson W. The Edge of Medicine: The Technology That Will Change Our Lives. Palgrave Macmillan, New York, 2008.
Hanson W. Smart Medicine: How the Changing Role of Doctors Will Revolutionize Health Care. Palgrave Macmillan, New York, 2011.
Schimpff SC. The Future of Medicine: Megatrends in Health Care. Thomas Nelson, Nashville, 2007.
Schimpff SC. The Future of Healthcare Delivery. Potomac Books, Washington DC, 2012.
Topol E. The Creative Destruction of Medicine: How the Digital Revolution Will Create Better Health Care. Basic Books, New York, 2012.
Medical Intel l igence and Innovations Institute (MI3) Glossary 2016
Anthony C. Chang, MD, MBA, MPH 1/5/2016 2:04 PM Page 14
PEDIATRICS2040 Glossary
Numbers
3-D Printing/ Technology of additive manufacturing that creates objects such as
medical implants and body parts for now and perhaps organs in the future. (Mironov V
et al. Perspective/ Organ Printing: Promises and Challenges. Reg Med 2008; 3(1): 93-
103.)
A
Accountable Care Organization (ACO)/ Creation of entities to accommodate
three aims: better care for individuals; better health for populations; and slower growth
in costs through improvements in care. (Berwick DM. Launching Accountable Care
Organizations- The Proposed Rule for the Medicare Shared Savings Program. N Engl J
Med 2011; 364: e32.)
Affordable Care Act (ACA)/ The comprehensive health reform signed in March
2010 by President Obama into law to render preventive care more accessible and
affordable starting in January 2014. (McDonough JE. The Road Ahead for the
Affordable Care Act. N Engl J Med 2012; 367: 199-201.)
Agent (see Intelligent Agent)
Algorithms/ Term describing the computer process of following a well-defined list of
instructions with historical origin traced to Al Khwarizmi and later popularized by
Leonardo Fibonacci. (Steiner C. Automate This: How Algorithms Came to Rule Our
World. The Penguin Group, New York, 2012.)
Artif icial Intell igence/ The science and engineering of making intelligent machines,
especially intelligent computer programs (John McCarthy, Stanford). (Chang AC et al.
Artificial Intelligence in Pediatric Cardiology: An Innovative Transformation in Patient
Care, Clinical Research, and Medical Education. Congenital Cardiology Today; 2012.)
Medical Intel l igence and Innovations Institute (MI3) Glossary 2016
Anthony C. Chang, MD, MBA, MPH 1/5/2016 2:04 PM Page 15
Artif icial Neural Network (ANN)/ A computational model inspired by natural
neurons with communication channels between neurons and these signals that can be
weighted (positive or negative). (Lisboa PJ et al. The Use of Artificial Neural Networks
in Decision Support in Cancer: A Systematic Review. Neural Networks 2006; 19(4): 408-
415.)
Association Analysis/ Data mining methodology which is useful for discovering
interesting relationships hidden in large data sets that can be represented in the form
of association rules (sets of frequent items). (Tan PN et al. Introduction to Data Mining,
Pearson Education Inc, Boston, 2006.)
Augmented Reality (AR)(see Virtual Reality)/ 3-D virtual objects are integrated into
a 3-D real environment in real-time as a form of advanced computer-assisted
navigation or visualization technology. (Ewers R et al. Basic Research and 12 Years of
Clinical Experience in Computer-assisted Navigation Technology: A Review. Int J Oral
and Max Surg 2005; 34(1): 1-8.)
Avatar/ A graphical representation of oneself in the virtual world. (Hansen MM.
Versatile, Immersive, Creative and Dynamic Virtual 3-D Healthcare Learning
Environments: A Review of the Literature. J Med Internet Res 2008; 10(3): 226.)
B
Bayesian Network (BN)(also Belief Networks or Bayes Nets)/ A graph-based model
that encodes the probabilistic relationships or dependencies among the variables of
interest, thereby can be used to learn causal relationships. (Friedman N et al. Using