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3D Printed Stent May Soon Give Hope to Esophageal Cancer Patients

A lot of folks who know me well; knows that I donate my time and expertise to help with the various cancer foundations such as the National Esophageal Cancer Foundation. Esophageal Cancer is one form of cancer not often caught in time due to its symptoms. However, researchers have developed a 3D Stent that is simply amazing and is bringing a lot of hope for so many. Technology and medicine together is an amazing team.

I cannot wait to share this with the foundation’s president; she lost her husband only 2 years ago to this deadly cancer, I lost a cousin, and 2 years ago doctor’s removed a lesion from my esophagus. I cannot express enough to folks (especially younger folks; this is truly a silent killer and it hits all ages (20s, 30s, 40s, and 50s). And, once you ever have a lesion or cancer; you must be diligent in your follow ups no matter what.


fauPretty much everyone I know, myself included, has lost someone to cancer, many of them far too young. Finding a cure for cancer is the lofty, ultimate goal for medical researchers, and people like to fantasize about the day when the headline suddenly appears in the paper: “Cure for Cancer Found!” No more deaths from the disease, no more painful, drawn-out treatments – just a shot or a pill that can eliminate cancer as easily as clearing up an ear infection.

In reality, will it happen like that? It probably won’t be that easy – cancer is a complicated beast, and there are so many different forms with their own unique complexities that a universal, one-off cure is a difficult proposition. However, a lot of promising recent developments do point to a near future in which treatment is much more effective and deaths much more rare. And a lot of those developments involve 3D printing.

ds00500_im03992_c7_esophagealstentthu_jpgNo cancer is pleasant, but some are much easier to treat than others. Certain types of cancers tend to come with a dire prognosis, and esophageal cancer is one of those. It’s the eighth most common type of cancer in the world, but it’s often detected late, and it’s very difficult to operate on; in fact, 50 to 60 percent of patients with the disease are ineligible for surgery. Those patients are often treated with the surgical implantation of a stent, which is made from a metal mesh and can cause numerous complications such as bleeding, perforation or tumor ingrowth.

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IMS Health, Proteus Digital among 8 founding partners for Keck virtual healthcare clinic

Virtual Healthcare & IMSHealth is a major player in this service offering. Healthcare and clinic in your own home.


The University of Southern California Center for Body Computing has teamed with 8 partners to launch a Virtual Care Clinic. The idea with VCC is to create an integrated approach to the use of mobile apps, “virtual” doctors, artificial intelligence, data collection and analysis, as well as diagnostics and wearable sensors to create truly on-demand healthcare.

The partners involved in this effort are peer-reviewed clinical trial database startup Doctor Evidence, drug data resource IMS Health ($IMS), consumer design firm Karten Design, HIPAA-compliant cloud platform Medable, video creator Planet Grande, sensor-enabled pill startup Proteus Digital Health and vision player VSP Global.

VSP’s next-gen sensor-embedded eyewear prototype, dubbed Project Genesis, will be refined and tested at the VCC in consultation with USC CBC, which is the digital health innovation accelerator at Keck School of Medicine. The VCC will also involve USC’s Institute of Creative Technologies (ICT).

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David Sengeh: The sore problem of prosthetic limbs

What drove David Sengeh to create a more comfortable prosthetic limb? He grew up in Sierra Leone, and too many of the people he loves are missing limbs after the brutal civil war there. When he noticed that people who had prosthetics weren’t actually wearing them, he set out to discover why — and to solve the problem with his team from the MIT Media Lab.

TEDTalks is a daily video podcast of the best talks and performances from the TED Conference, where the world’s leading thinkers and doers give the talk of their lives in 18 minutes (or less). Look for talks on Technology, Entertainment and Design — plus science, business, global issues, the arts and much more.

Find closed captions and translated subtitles in many languages at http://www.ted.com/translate

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Breakthrough Diabetes Cell Therapy Could Be A Game Changer

Research is edging us closer to a cure for type 1 diabetes, with encapsulated insulin producing cells that could last for years — ending daily injections

Over 400,000 in the UK alone live with type 1 diabetes, and daily injections are far from a ‘cure’ for the condition. Although these have saved millions worldwide, they’re inaccurate in comparison to the body’s own finely tuned insulin producing cells. This leads to progressive damage and complications.

The wonders of cell therapy

In type 1, and some later stage type 2 diabetics, the body lacks capable insulin producing beta cells. These carefully release packets of insulin in response to fluctuating blood sugar levels, and keep your blood sugar in check. Harvesting beta cells from deceased donors has been attempted in the past, but they’re quickly attacked by the immune system and patients must take unpleasant immunosuppressant drugs alongside the treatment.

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Cancer riddle, solved: Researchers reveal how cancer cells form tumors

Cancer is a mysterious disease for many reasons. Chief among the unknowns are how and why tumors form.

Two University of Iowa studies offer key insights by recording in real time, and in 3-D, the movements of cancerous human breast tissue cells. It’s believed to be the first time cancer cells’ motion and accretion into tumors has been continuously tracked. (See accompanying videos.)

The team discovered that actively recruit healthy cells into tumors by extending a cable of sorts to grab their neighbors—both cancerous and healthy—and reel them in. Moreover, the Iowa researchers report that as little as five percent of cancerous cells are needed to form the tumors, a ratio that heretofore had been unknown.

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New algorithm points the way towards regrowing limbs and organs

An international team of researchers has developed a new algorithm that could one day help scientists reprogram cells to plug any kind of gap in the human body. The computer code model, called Mogrify, is designed to make the process of creating pluripotent stem cells much quicker and more straightforward than ever before.

A pluripotent stem cell is one that has the potential to become any type of specialised cell in the body: eye tissue, or a neural cell, or cells to build a heart. In theory, that would open up the potential for doctors to regrow limbs, make organs to order, and patch up the human body in all kinds of ways that aren’t currently possible.

It was Japanese researcher Shinya Yamanaka who first reprogrammed cells in this way back in 2007 — it later earned him a Nobel Prize — but Yamanaka’s work involved a lot of labourious trial and error, and the process he followed is not an easy one to reproduce. Mogrify aims to compute the required set of factors to change cells instead, and it’s passed its early tests with flying colours.

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How Technology Changes the Way We Diagnose and Treat Mental Illness

As recently as 50 years ago, psychiatry lacked a scientific foundation, the medical community considered mental illness a disorder of the mind, and mental patients were literally written off as “sick in the head.” A fortunate turn in progress has yielded today’s modern imaging devices, which allow neuroscientists and psychiatrists to examine the brain of an individual suffering from a mental disorder and provide the best treatment options. In a recent interview, Columbia University Psychiatry Chair Dr. Jeffrey Lieberman stated that new research into understanding the mind is growing at an accelerated pace.

(iStock)

Lieberman noted that, just as Galileo couldn’t prove heliocentrism until he had a telescope, psychiatry lacked the technological sophistication, tools, and instruments necessary to get an understanding of the brain until the 1950s. It wasn’t until the advent of psychopharmacology and neuroimaging, he said, that researchers could look inside the so-called black box that is the brain.

“(It began with) the CAT scan, magnetic resonance imaging (MRI) systems, positron emission tomography (PET scans) and then molecular genetics. Most recently, the burgeoning discipline of neuroscience and all of the methods within, beginning with molecular biology and progressing to optogenetics, this capacity has given researchers the ability to deconstruct the brain, understand its integral components, its mechanisms of action and how they underpin mental function and behavior,” Lieberman said. “The momentum that has built is almost like Moore’s law with computer chips, (and) you see this increasing power occurring with exponential sort of growth.”

Specifically, the use of MRIs and PET scans has allowed researchers to study the actual functional activity of different circuits and regions of the brain, Lieberman noted. Further, PET scans provided a look at the chemistry of the brain, which has allowed for the development of more sophisticated pathological theories. These measures, he said, were used to develop treatments while also allowing measurement of the effectiveness of both medication-based therapies and psychotherapies.

As an example, Lieberman cited the use of imaging in the treatment of post-traumatic stress disorder (PTSD). The disorder, a hyperarousal that chronically persists even in the absence of threatening stimulation, is treated through a method called desensitization. Over time, researchers have been able to fine-tune the desensitization therapies and treatments by accessing electronic images of the brain, which can show if there’s been a reduction in the activation of the affected amygdala.

Lieberman noted that despite progress in this area, technology has not replaced interaction with the individual patient; however, as technology continues to evolve, he expects the diagnoses of mental disorders to be refined.

“By the use of different technologies including genetics (and) imaging, including electrophysiological assessments, which are kind of EEG based, what we’ll have is one test that can confirm conditions that were previously defined by clinical description of systems,” Lieberman said. “I think, of all the disciplines that will do this, genetics will be the most informative.”

Just as genetics is currently used to diagnose cancer using anatomy and histology, Lieberman said the expanding field is helping researchers distinguish mental illness in individuals with certain genetic mutations. He expects that in the future, doctors will use “biochips” to routinely screen patients and provide a targeted therapy against the gene or gene product. These chips will have panels of genes known to be potentially associated with the risk for mental illness.

“Someone used the analogy of saying the way we treat depression now is as if you needed to put coolant into your car. Instead of putting it into the radiator, you just dump it on the engine,” he said. “So genetics will probably be the most powerful method to really tailor to the individual and use this technique of precision and personalized medicine.”

Lieberman also sees additional promise in magnetic stimulation, deep brain stimulation through the surgical implanting of electrodes, and optogenetics. Though he has plenty of optimism for these treatments and other potential treatments for mental illness, much of their continued growth may hinge on government policy and budgets. Recent coverage of gun violence in the United States, and a public call for better means by which to screen individuals for mental health inflictions, may be an unfortunate catalyst in moving funding forward in this research arena. A recent article from the UK’s Telegraph discusses Google’s newfound interest in this research, with former US Head of the National Institute of Mental Health now in a position at Google Life Sciences.

“Science, technology and healthcare are doing very well, but when it comes to the governmental process, I think we’re in trouble,” he said. “A welcome development in this regard is President Obama’s Human Brain Initiative, which if you look at the description of it, (is) basically to develop new tools in neurotechnology that can really move forward in a powerful way of being able to measure the function of the brain. Not by single cells or single circuits, but by thousands or tens of thousands of cells and multiple circuits simultaneously. That’s what we need.”

2016 – The Year of Robot Democratization?

The things we need to know for the 2016 robotic experience — robot clusters, manufacturing & logistics, food & healthcare, A3 Mexico Coming Soon and robotics integration.


Bold predictions for Collaboration, Connectivity and Convergence rang in 2015. One industry insider even called them prescient. Looking back a year later, we see the five-year forecast materializing faster than expected.

Industrial Internet of Things (IIOT) is more than a buzzword. With drones taking to the skies and autonomous robots navigating our warehouses, local eateries, hotels, hospitals, and stores, and soon our roadways – the differences between industrial, collaborative, and service robots continue to blur. No longer are robots reserved for multinational conglomerates or the rich eccentric with a sweet tooth for high-tech toys. SMEs and your average homeowner can now join the party. Sensors, software, and hardware are getting smarter and cheaper. We’re democratizing robotics for the masses.

It’s taken longer than some had hoped. But we’re approaching the tipping point for many automation technologies. We’re envisioning a world where robots will help the elderly and infirm with everyday tasks, so they can live independently longer. We’re moving closer to Asimov’s robots and to the “mobile, sensate robot” Engelberger anticipated. It’s the paradigm shift foretold by visionaries past and present.

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