Skip to content

Posts from the ‘Health 2.0’ Category

My New Book, The Guide to the Future of Medicine, is For Free as an E-Book Now!

Download the Kindle version of my new book, The Guide to the Future of Medicine, for free between the 16th and 18th of December! It has already made it to the top 100 overall Kindles on Amazon. If you don’t have a Kindle, you can still download and read it online at cloud.amazon.com.

I cannot wait to hear what you think about the book and those 22 trends & technologies that will shape the future! Download here!

Here is the description:

A few short years ago, it would have been hard to imagine that exoskeletons could enable paralyzed people to walk again; that billions of people would rely on social media for information; and that the supercomputer Watson would be a key player in medical decision-making. Perhaps more than in any other field, technology has transformed medicine and healthcare in ways that a mere decade ago would have sounded like pure science fiction.

From his unique vantage as a trained physician, researcher, and medical futurist, Dr. Bertalan Mesko examines these developments and the many more down the pipeline. His aim is to assess how the hand of technology can continue to provide the dose of humanity that is crucial to effective healthcare. The Guide to the Future of Medicine: Technology and the Human Touch is his incisive, illuminating roundup of the technologies and trends that will shape the future of medicine.

Patients, medical professionals, and any healthcare stakeholder will find an eye opening, reassuring roadmap to tomorrow’s potential in this accessible and fact-based book. By preparing for the inevitable waves of change, you can make informed decisions about how technology will shape your own well-being.

KONYVBORITO_online final s 350

Top 5 Wearable Trackers And Handheld Devices Measuring How And What You Eat

For years, I’ve been measuring plenty of health parameters and vital signs about myself to make sure I truly live a healthly life but tracking what I eat and my eating habits has been a real problem. Although, I have been using a few trackers and have had a chance to try or see some other devices which will revolutionize the way we eat every day. Let’s see the top 5 wearable trackers and handheld devices.

1) Liftware: Designed by Lift Labs which was acquired by Google, Liftware is a stabilizing handle and a selection of attachments that include a soup spoon, everyday spoon, and fork. Liftware is specially designed to improve the lives of those with Essential Tremor, Parkinson’s Disease, or other motion disorders.

home-starterkit

2) HAPI fork: Eating too fast leads to poor digestion and poor weight control. The HAPIfork, powered by Slow Control, is an electronic fork that helps you monitor and track your eating habits. It also alerts you with the help of indicator lights and gentle vibrations when you are eating too fast.

specs-5forks

3) Tellspec: The world’s first handheld device able to scan food so consumers know more about the ingredients before they buy or eat the food. TellSpec brings together spectroscopy and a unique mathematical algorithm in a revolutionary system that can analyze the chemical composition of foods.

Tellspec1

4) BitBite: BitBite is a wearable device meant to track, analyze and change the way you eat. When you slow down, chew more and eat at regular intervals you’ll be improving your nutrition, feel better and shed those extra pounds.

wearable-device-2

5) Automatic Ingestion Monitor: Known as the Automatic Ingestion Monitor (AIM), the 3D-printed prototype device is worn over one ear. Among other things, it incorporates a motion sensor, a tiny camera, and a Bluetooth transmitter. When the user eats, the sensor detects the distinctive chewing motion of their jaw – it’s able to tell the difference between that motion, and those that accompany activities such as talking. Once AIM is triggered by the chewing, its camera takes photos of what the user is eating.

automaticingestionmonitor

See how some of these work in action and how they could be used to improve eating habits in the newest video of The Medical Futurist Youtube channel. And please let me know if you know about other devices.

Why Is Measuring Data About Your Condition Worth It?

This is not a new story but I’m always fascinated when I read it again and again. Doug Kanter measured data about his life, his condition, blood sugar levels and every details that could have been relevant.

Later, he published his findings and what he learnt during the process. Amazing read and a perfect proof for those against measuring health data as patients that this can lead to better health and disease management. After some time, he realized that his average blood sugar levels became lower due to self-management.

Doug released a service, Databetes, to help other patients with diabetes better manage their condition.

gallery-diabetes-year-health-data-visualization_0

The Practical Guide to the Future of Medicine

I see enormous technological changes heading our way. If they hit us unprepared, which we are now, they will wash away the medical system we know and leave it a purely technology–based service without personal interaction. Such a complicated system should not be washed away. Rather, it should be consciously and purposefully redesigned piece by piece. If we are unprepared for the future, then we lose this opportunity.

I wrote a book “The Guide to the Future of Medicine: Technology AND The Human Touch” to prepare everyone for the coming waves of change, to be a guide for the future of medicine that anyone can use. It describes 22 trends and technologies that I think will shape the future.

Here are the real examples and practical stories about why these are leading the waves of change. Read the whole stories and more examples in the book.

Empowered Patients

  • E-Patient Dave demonstrated what the relationship between patient and doctor should be like.
  • PatientsLikeMe.com and smartpatients.com let patients discover each other and share stories.
  • CrowdMed.com was designed to help patients crowdsource crucial information.

Gamifying Health

  • By playing games on Lumosity.com, our memory, flexibility, attention, and focus can be improved.
  • The Quantified Self movement has recently started to transform into the “Quantified Us” movement.
  • The smartphone application “Zombies, Run!” requires the runner to pick up virtual supplies and escape from virtual zombie hordes making exercise more motivated.
  • The Microsoft Kinect 3D sensor is able to monitor and analyze performance in real time, giving patients feedback as they exercise and complete assignments.

Eating in the future

  • Foodini aims at printing out food using fresh ingredients. It can make ravioli, cookies, or crackers.
  • The Cultured Beef project aims to make commercially available meat created by harvesting muscle cells from a living cow.
  • TellSpec is a hand–held device designed to determine what macronutrients or specific ingredients the food contains.

Augmented and Virtual Reality

  • Dr. Rafael Grossmann became the first surgeon to demonstrate the use of Google Glass during a live surgical procedure.
  • Eyes–On™ Glasses uses imaging technology to find the location of the most suitable vein.
  • Google is working on a multi–sensor contact lens that would work with Google Glass, other wearables, Android smartphones and even smart televisions.

Telemedicine

  • An autonomous remote–presence robot called RP–VITA is used in monitoring surgical patients before, during, and after their operations.
  • In its 2014 e–health report Deloitte called e–visits the house calls of the 21st century.
  • Video consultation is becoming a routine part of care offered by the Stanford Hospital & Clinics.

Re-thinking the Medical Curriculum

  • The “Healing Blade” card game takes medical students into a world of sorcery and creatures where real–world knowledge of infectious diseases and therapeutics play a pivotal role in the winning strategy.
  • At Radboud University Medical Center, they are currently working on a revolutionary new medical curriculum.

Surgical and humanoid robots

  • In underdeveloped regions, surgical robots could be deployed so that operations are performed by surgeons who control the robots from thousands of kilometers away.
  • The new version of the daVinci system, called Xi, was released by Intuitive Surgical in 2014.
  • Medical drones could deliver supplies and drugs to conventionally unreachable areas.

Genomics

  • The shipping cost of our sample will be more expensive than the cost of actually sequencing our genome.
  • In years, we will stop talking about personalized medicine as it will no longer be anything special.
  • Oxford Nanopore released its MinION sequencer that can read short DNA fragments, exists on a USB drive sized device, and can perform the actual sequencing on a laptop.

Health Sensors

  • Using devices to measure numerous health parameters is not only possible in the ivory tower of medicine as 2014 is the year of the wearable revolution.
  • The world’s lightest and thinnest flexible sensor system will produce stress–free wearable healthcare sensors.
  • The smart bra has successfully been tested in over 500 breast cancer patients detecting the disease.

Portable Diagnostics

  • The Qualcomm Tricorder X Prize promises to award $10 million to the first team to build a medical tricorder.
  • An estimated 500 million smartphone users, including medical professionals, consumers, and patients, will be using a healthcare–related application by 2015.
  • Physicians will prescribe a lot more applications than medications to their patients.

Growing orgains in labs

  • Biomaterials such as liver tissue and skin have been successfully printed out.
  • In 2014 scientists succeeded in regenerating a living organ, the thymus, which produces immune cells.

DIY Biotechnology

  • Citizen scientists are changing the way research is performed.
  • BioCurious, a hackerspace for biotech, opened with the mission statement that innovations in biology should be accessible, affordable, and open to everyone.
  • Theranos develops a radical blood–testing service that requires only a pinprick and a drop of blood to perform hundreds of lab tests from standard cholesterol checks to sophisticated genetic analyses.

The 3D Printing Revolution

  • Printing medical devices, living tissues, then eventually cells and pharmaceuticals might not be far away from everyday use.
  • Lee Cronin, a chemist at the University of Glasgow, wants to do for the discovery and distribution of prescription drugs what Apple did for music.
  • RoboHand has begun developing a low–cost printed leg prosthesis.

Prosthetics

  • Ekso Bionics designs and develops powered exoskeletons that could make walking possible again for paralyzed people.
  • Bespoke Innovations went further in customization to make beautifully designed prosthetics based on the patient’s needs and personality.

Full Physiological Simulation

  • Supercomputers could run analyses on thousands of drug targets on billions of patient models in silico.
  • HumMod is a simulation system that provides a top–down model of human physiology from organs to hormones.
  • The Wyss Institute and a team of collaborators seek to link ten human organs–on–chips to imitate whole–body physiology.

Artificial Intelligence

  • Watson is perhaps the most important supercomputer, and one of the first to enter the artificial intelligence (AI) market in our time.
  • Using 500 randomly selected patients for its simulations, the AI models cost $189 whereas treatment–as–usual cost $497.

Nanotechnology

  • Tiny nanorobots in our bloodstream could detect diseases and send alerts to our smartphones or digital contact lenses before disease could develop in our body.
  • The first DNA nanodevice that survived the body’s immune defense was created in 2014.

Hospitals of the Future

  • NXT Health designed and funded a prototype of the future hospital rooms intended to reduce infections, falls, errors and ultimately costs.
  • The Walnut Hill Medical Center in Dallas has been referred to as the Apple experience hospital due to its design and innovative nature.

Virtual-Digital Brains

  • Japanese scientists could map one second’s worth of activity in the human brain with K computer, the fourth most powerful supercomputer in the world.
  • Optogenetics shows the potential to provide new therapies for several medical conditions such as epilepsy, Parkinson’s disease, or depression.
  • Dr. Kevin Warwick managed to control machines and communicate with others using only his thoughts with a cutting–edge neural implant.

The Rise of Recreational Cyborgs

  • In 2016, Zurich, Switzerland will host the first championship sports event under the name Cybathlon for parathletes using high–tech prostheses, exoskeletons, and other robotic and assistive devices.
  • Chris Dancy is usually referred to as the world’s most connected man. He has between 300 and 700 systems running and collecting real–time data about his life at any given time.

Cryonics, Longevity

  • A research performed in Pennsylvania in May, 2014 tested a new method of freezing gunshot victims while doctors tried to save their lives.
  • The Cryonics Institute in Clinton Township, Michigan stores hundreds of cryopreserved people and animals along with DNA and tissue samples.

There are thousands of reasons why to look forward to the future of medicine!

Mayo Clinic Chiefs Name E-Patient Dave as 2015 Visiting Professor

Wonderful news! E-Patient Dave, the leader of the global e-patient movement who gave a talk last year at my Social Media in Medicine university course as well, was named Visiting Professor for Mayo Clinic.

Patient engagement and empowerment is a natural extension of Dr. Will Mayo’s vision of a medicine as a cooperative science. We are therefore honored to announce Dave deBronkart (aka “e-Patient Dave”) as our 2015 Visiting Professor to help spread this powerful message. We look forward to his March, 2015 visit!

Philips to Enroll Hereismydata™ Worldwide

My mentor and good friend, Lucien Engelen, Director of the Radboud REshape Innovation Center did it again! He transformed a great idea that can save a lot of lives globally into an actual product or service. Today, he announced that Philips will start enrolling Hereismydata worldwide in front of 140.000 people at the 3rd biggest IT event of the world, “Dreamforce” of Salesforce.com.

We at Hereismydata™ are creating a one-stop-and-go place to store your data. Secure, robust and you in control. Connecting apps and devices, creating clinical modules like the COPD module with Philips, and connecting services like Apple’s healthkit and (lateron) Google Fit and back and forth EMR’s will help to create insight in the patchwork of data out there.

They start with COPD but will add many more conditions soon. Combining all kinds of vendors, operating systems, and languages as well as local legislation issues that have been tackled creates the ecosystem he envisioned long ago.

This video explains how it works.

Why And How Healthcare Institutions Should Prepare For IBM Watson

What even the most acclaimed professors know cannot match cognitive computers. As the amount of information they accumulate grows exponentially, the assistance of computing solutions in medical decisions is imminent. While a physician can keep a few dozen study results and papers in mind, IBM’s supercomputer named Watson can process million pages in seconds. This remarkable speed has led to trying Watson in oncology centers to see how helpful it is in making treatment decisions in cancer care.

Watson is based on deep Q&A technology and gives a set of possible answers as the most relevant and likely outcomes to medical questions. But physicians make the final call. I have to note here that Watson is not there to replace the physicians, but to support them when making decisions. It also interacts with physicians and can suggest which additional tests are needed to generate a higher degree of confidence.

IBMWatson

The MD Anderson Center’s Oncology Expert Advisor

It is built to aid physicians in making evidence-informed decisions based on up-to-date knowledge. The system was designed to have three main capabilities:

  • Dynamic patient summary: Interpret structured and unstructured clinical data to create dynamic patient case summaries.
  • Evidence-based treatment options: Make treatment and management suggestions based on the patient profile weighed against consensus guidelines, relevant literature, and MD Anderson expertise.
  • Care pathway advisory: Provide care pathway advice that supports management of patients by alerting clinicians of adverse events or suggesting proactive care support.

When testing the accuracy of the system to recommend standard of care treatment related to 200 leukemia cases, the system had a false-positive rate of 2.9% and a false-negative rate of 0.4%. The overall accuracy of the standard of care recommendations was 82.6%.

The Memorial Sloan Kettering Oncology Advisor

Memorial Sloan Kettering’s expertise and experience with thousands of patients are the basis for teaching Watson how to translate data into actionable clinical practice based on a patient’s unique cancer. While initially focused only on breast and lung cancers, the work has expanded to more than a dozen other common solid and blood cancers such as colon, prostate, bladder, ovarian, cervical, pancreas, kidney, liver, and uterine, as well as melanomas and lymphomas. Watson digested the guidelines about Lung and Breast Cancer issued by the National Comprehensive Cancer Network (roughly 500,000 unique combinations of breast cancer patient attributes; and roughly 50,000 unique combinations of lung cancer patient attributes). Over 600,000 pieces of evidence were digested from 42 different publications/publishers.

How to prepare

There is no doubt it will have a bigger and bigger impact on how we practice medicine worldwide. But all stakeholders in the system must prepare for that:

  1. Medical professionals should acquire basic knowledge about how AI works in a medical setting in order to understand how such solutions might help them in their everyday job.
  2. Decision makers at healthcare institutions should do everything to be able to measure the success and the effectiveness of the system. This is the only way to assess the quality of AI’s help in medical decision making.
  3. Companies such as IBM should communicate even more towards the general public about the potential advantages and risks of using AI in medicine.
  4. Non-English speaking countries should invest in natural language processing (NLP). If the patient information is not in English, Watson needs to understand the content and context of the structured and unstructured information in that language. To do this, it uses the Unified Medical Language System (UMLS) and a semantic type recognition. The Watson Content Analytics (WCA) tool that processes NLP and is based on Unstructured Information Management Architecture (UIMA) is used for building annotations. WCA then uses a Medical Concept Extraction Tool and a Health Language Medical Terminology Management system that uses standard medical terminologies databases such as SNOMED, ICD-9, ICD-10, RxNorm, etc. And this is where most e.g. European countries miss the point. They don’t have all these systems in all the languages.

The other option is obviously to train physicians and nurses to document everything in English. But we can agree that this will never happen.

It is time to prepare in order to let technology help us do a better job in medicine.

This video provides a great summary about all these:

Follow

Get every new post delivered to your Inbox.

Join 41,697 other followers

%d bloggers like this: