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Are You Ready for a Smart Tattoo? – The Latest in Wearable Technologies

Wearable technologies represent a booming industry worldwide. Reportedly, over 370 million wearable devices will be shipped next year. Likewise, the industry is now estimated to be around $25 billion. It’s therefore not surprising that major companies like Google, Amazon, Apple, Microsoft, and Facebook are exploring this market. And one of the most recent innovations in the field looks to link technology with our skin. This is the promise of smart tattoos.

Over the last several decades, the popularity of tattoos has grown significantly. In fact, their level of attraction has occurred around the same time that smart phones came into existence. So, why not pair the two together? By using our skin as a potential interface to our smart devices, new opportunities emerge. Not only might this usher in greater convenience, but it could have tremendous implications for the health and fitness industry. These are the impacts that major companies are banking on with these new wearable technologies.

“The wearables you buy today are pretty much all only a reduced smartphone. You shrink the smartphone display, put it on a wristwatch, and you have it. But what if we take that to the next step. What if these devices can not only read signals from the human body but also intersect and interject signals into the human body?” – Dr. Pedro Lopes, Assistant Professor, University of Chicago, Human Computer Integration Lab

The Potential of the Smart Tattoo

The basics of a smart tattoo involve the attachment of some type of electronic circuitry to your skin. In some cases, these wearable technologies involve a sticker while in others they are rub-on tattoos. Once in place, the digital art serves as a sensor that you can control. By stroking its surface, pinching the adjacent skin, or moving in a particular manner, you can send signals. These instructions can then communicate with your smart phone or wrist watch. Or they may serve as a contact-free way of interacting with other devices. It would be pretty cool to pay for your groceries with your smart tattoo, huh?

A woman proudly showing off her smart tattoo
Would you get a smart tattoo that syncs up to your phone?

This is not the only potential use of these new wearable technologies. A smart tattoo may also be able to monitor health data as well. Currently, researchers at Harvard and MIT have been developing a smart tattoo called the Dermal Abyss. Using bio-sensitive ink, the adhesive on the skin is able to detect sodium and glucose levels under the skin. When these things change, the Dermal Abyss changes color, providing instantaneous feedback. The researchers anticipate this could be ideal for health monitoring patients with diabetes or prone to dehydration. By linking color data to a smartphone app, health monitoring would be quite simple.

“[Smart tattoos] are also skin-friendly, as they are attached to the skin with a biocompatible, medical-grade adhesive. Users can, therefore, decide where they want to position the sensor patch and how long they want to wear it.” – Jürgen Steimle, Lead Researcher, Future Interfaces Group, Human-Computer Interaction Institute, Carnegie Mellon University

Different Companies, Different Smart Tattoos

In addition to Dermal Abyss, some major companies are pursuing these types of wearable technologies as well. For example, iSkin is a product being developed by Max Plank Institute for Informatics. In collaboration with Saarland University in Germany, the iSkin smart tattoo uses a flexible rubber silicon sticker to affix to the skin. Users also have the advantage of designing their own patterns on the iSkin patches. Its touch-sensitive surface can then be used to control various mobile devices.

Another smart tattoo product is being developed by Microsoft in conjunction with MIT. Named DuoSkin, this wearable technology consists of a gold leaf platform that is both durable and highly aesthetic. The circuitry is created using graphic design software, and it is attached to a gold leaf using an adhesive. DuoSkin tattoos are then put into place using a water transfer method onto the skin. As a result, they are temporary and can be relocated if preferred. These also serve as a touchpad for smart devices. However, Microsoft plans on developing DuoSkin further for health and fitness applications.

The smart tattoo receiving the most press as of late is Google’s SkinMark. Google has been investigating wearable technologies for some time with notable flops in the past. But with SkinMark, Google hopes things will be different. This rub-on smart tattoo is composed of conductive ink that is printed in tattoo paper. When swiped, stretched, or bent, it can convey specific instructions to other devices. The nice thing about SkinMark is its ability to come in different designs, shapes and sizes. As a result, it can be placed in variety of places on the body.

“Through a vastly reduced tattoo thickness and increased stretchability, a ‘SkinMark’ is sufficiently thin and flexible to conform to irregular geometry, like flexure lines and protruding bones.” – Google’s Research Team on wearable technologies

Wearable Technologies with Some Hurdles Ahead

Notably, some concerns exist regarding these new wearable technologies. The major ones involve privacy of data. The enormous amount of data that might be gained from a smart tattoo is worth noting. Not only might this involve user behaviors, but it could also relay important health data as well. Google alone already makes $160 billion annually from targeted advertising. Thus, it’s not surprising so many major companies are interested in all categories of wearable technologies including a smart tattoo.

Despite these issues, the promise of these wearable devices is just now being contemplated. In addition to the potential uses described here, more advanced conceptions exist as well. For example, wearable technologies could eventually be used to stimulate movements using the body’s sensory feedbacks. This would have significant repercussions for rehabilitation and disability needs. Though smart tattoos are a small step in this direction, they are a notable one nonetheless.

 

For more stories on how bold accomplishments are changing the world, check out Ed Kopko’s PROJECT BOLD LIFE: The Proven Formula to Take on Challenges and Achieve Happiness and Success.

Tech vs. COVID-19: 3D Bioprinting Human Tissue for Testing COVID-19 Therapies

Over the last several years, 3D printing innovations have sparked great enthusiasm and interest. This is particularly relevant to evolving space pursuits that plan to use these technologies in the future. But more pressing needs are currently present on a global scale with innovative COVID-19 therapies in demand. As hundreds of millions become infected with the virus, investigations for treatments and vaccines are hurrying to find solutions. And technologies like 3D bioprinting may play a significant role in these pursuits.

3D bioprinting offers a unique approach in exploring COVID-19 therapies. Rather than having to study petri dishes or lab mice, actual human tissues can be used. This has notable advantages for investigating the effectiveness of possible treatments for those infected. Likewise, this approach may also provide insights that could guide better vaccines. Despite the fact that 3D bioprinting has some limitations still, researchers are bullish on its potential to help. If used effectively, it might just usher in 3D therapies much sooner than expected.

“We work a lot with researchers, pharmaceutical companies and biotech companies, and we are trying to seed advances as quickly as possible, analyze data and develop new drugs. This [3D bioprinting project] is the most exciting project I’ve worked on in a long time.” – Rebecca Laborde, Master Principle Scientists, Oracle

What Is 3D Bioprinting?

When it comes to 3D bioprinting, the main difference involves the types of materials used. Most 3D printing models use some type of scaffolding or structure upon which the printing occurs. For creating human tissues, this involves biodegradable scaffolding that contains microscopic channels. These channels contain nutrients that can then serve to nourish the printed human cells. In essence, this provides a basic template upon which the human tissue can grow.

Someone has 3D printed a human heart
Want to test out some COVID-19 therapies? 3D bioprinting to the rescue!

With this scaffolding in place, bioink is then printed in place layer by layer until the entire form is made. Bioink consists of liquid cells as well as a hydrogel that gives it a bit of stability. Once in place, these cells can survive and function just like normal cells. For research involving COVID-19 therapies, tiny human organs of the lung and liver are being created. Rather than having to perform trials on actual patients or animals, these 3D-printed organs can be used for investigative purposes.

“We are accompanying the spectacular work from our peers in the scientific community and have identified tremendous potential for our platform to enable COVID-19 research in a much faster, yet physiologically relevant manner.” – Taciana Pereira, Allevi Vice President of Life Sciences

Current Investigations in COVID-19 Therapies

Several research labs and technology companies are actively involved in using 3D bioprinting currently. The primary areas of research involve the use of 3D printed human organs infected with coronavirus to see its mechanism of action. This could offer hope in developing a more effective coronavirus vaccine. Secondly, these same 3D-printed tissues infected with the virus are being tested with new treatments. This serves to determine both the effectiveness and toxicity effects of new COVID-19 therapies. Both have obvious benefits.


Several of these companies and labs deserve recognition. Viscient Bioscience LLC has a history of working with 3D bioprinting and organ research. For example, it has been involved in the production of human liver tissues from diseased patients to study pathologic tendencies. Viscient is actively developing addition human tissues to evaluate COVID-19 therapies. Another company, Allevi, is doing the same with human lung tissues. This Philadelphia startup is working with biomedical researchers at Wistar Institute for similar purposes. Both are hopeful that these approaches will accelerate important discoveries.

“The more closely our [3D bioprinting] model recreates the human disease, the better our understanding of whether a therapy will work” – Keith Murphy, Chief Executive Officer of Viscient Biosciences LLC

The Pros and Cons of 3D Bioprinting in COVID-19

The advantages of 3D bioprinting are noteworthy. Naturally, the quality of the research is enhanced with these models. They offer better approaches to study the actual effects of diseases on human tissues that petri dishes and animal experiments. But at the same time, these strategies improve efficiency of research and resource utilization. If 3D-printed tissues can be easily reproduced, then investigations can proceed more quickly. In addition, 3D bioprinting may also enhance precision medicine. If an individual’s own cells are used to create the tissues, that person’s response to therapy can be better predicted. This is not only useful for COVID-19 therapies but for all types of interventions.

At the same time, challenges exist with 3D bioprinting. One of the challenges involve the variety of cell types that exist within different human organs. Researchers such as those at the Rensselaer Polytechnic Institute have recognized this when 3D-printing skin cells. Not only are skin cells involved but so are vascular cells and glandular cells. In terms of the coronavirus itself, it would be ideal to develop 3D-printed models of organs from infected patients. However, the infectious nature of the virus hinders such an approach. While this doesn’t completely preempt research of COVID-19 therapies, it is a limitation.

An Exciting and Evolving Health Technology

Advances in the field of 3D bioprinting are happening at warp speed. These innovative technologies are quite exciting and have relevance for many fields. This is particularly true for researchers striving to develop COVID-19 therapies. Even companies like Oracle are involved. They are working with biomedical companies by placing a chip within 3D-printed organs that conveys additional information. Data concerning toxicity effects as well as treatment benefits can further improve research insights. While 3D bioprinting may be a work in progress, its potential is amazing. And it may prove to play a key role in expediting effective COVID-19 therapies for use.

 

For more examples of how people have turned challenges into opportunities for success, check out Ed Kopko’s PROJECT BOLD LIFE: The Proven Formula to Take on Challenges and Achieve Happiness and Success.

Research Advances in Cancer Detection – A Blood Test for Cancer in Healthy Subjects

For several years, researchers have pursued a test that offered cancer detection before symptoms ever appeared. If this could be developed for mass use, then it could save billions in healthcare expenditures in addition to lives. An ounce of prevention is better than a pound of cure. But developing a blood test for cancer that is both sensitive and specific has proven tough. Wvery year, scientists get a little close to making this a reality. And machine learning techniques are helping.

Recently, researchers completed an extensive longitudinal study spanning nearly a decade. In the study, asymptomatic people were followed over time and monitored for cancer development. By combining machine learning with unique blood tests for cancer, they were able to accurately predict cancer occurrence. In fact, their cancer detection ability was 91 percent with it being specific to the cancer type in 95 percent. Naturally, this has everyone who is involved in cancer prevention testing quite hopeful.

“We can’t say for sure that the patients didn’t have any symptoms, but we detected the cancer years before they ever walked into the hospital.” – Kun Zhang, PhD, Professor of Bioengineering, University of California San Diego

The Cancer Detection Research Study

The research described was performed in China and involved over 123,000 healthy subjects. Between 2007 and 2014, a blood test for cancer was administered to the subjects periodically. The results of these tests were then matched to patient histories over time using cancer registry data. In patients who eventually presented with cancer, the blood test for cancer identified 91 percent. The time between cancer detection on the test and their presentation to a clinic was between 1 and 4 years. In other words, the test predicted cancer long before any symptoms appeared.

A close up of some cancer cells
Recent developments in cancer detection might mean catching the illness at its most treatable stage.

The most interesting aspect of the study involved how the blood test for cancer, called PanSeer, was developed. The researchers used machine learning to help develop the test by providing data regarding healthy people and those with cancer. The protocol only involved 5 types of cancer, which included stomach, esophageal, bowel, lung, and liver cancers. Based on the data, a testing model was designed. Specifically, the cancer detection involves looking for a specific DNA methylation signature in the blood. And based on the results of the study, it looks to be highly accurate.

“For any test, it is always more prudent to begin with a high-risk population. You want to see some benefit with the high-risk population first, and then it can slowly be extended to others at lower risk.” – Kun Zhang, PhD

Other Screening Blood Tests for Cancer

The research was conducted at the University of California in San Diego. However, researchers worked in conjunction with Singlera Genomics, based in La Jolla, to develop PanSeer. Their study is unique since it’s the first to examine individuals over a prolonged period of time before cancer appeared. Other researchers have studied cancer detection tests using samples for patients already diagnosed. And while their results have also been promising, they are not as robust as Singlera’s data.

Several other companies have reported progress in cancer detection as well. For example, CancerSEEK offers a blood test for cancer that screens for 8 different types of cancer. Like PanSeer, it also using DNA methylation and protein markers to identify possible cancer cells. Grail is another company whose blood test for cancer checks for 12 cancer types. However, its cancer detection sensitivity is reported to be only 67 percent. Finally, CellMax Life FirstSight blood test for cancer is specific for colorectal cancer and adenomas. Though promising, it similarly has a lower detection rate as well. So far, the best results have come with this most recent study.

“If there is a positive finding [on PanSeer], then which cancer do you look for? It has an issue in that regard, and that’s the problem with this type of [cancer detection] test, as it is easier if there is one site of origin.” – Benjamin Weinberg, MD, Assistant Professor of Medicine, Division of Hematology and Oncology, Georgetown University

Challenges with Cancer Detection Tests

In an ideal world, it would be nice to identify cancer as soon as the first cell appeared. In this way, therapies could be administered when they might be most effective. But this isn’t a practical approach for a couple of reasons. For one, cancer detection of such a small volume of cells would be challenging to say the least. But also, the body’s immune system often eliminates cancer cells on its own. A blood test for cancer that is too sensitive might therefore subject people to unnecessary treatments. This violates the first rule of medicine, which is to first do no harm.

In addition to these challenges, the current tests available screen for several cancer types. Should a blood test for cancer return a positive result, the difficulty then is knowing where to look. Even for PanSeer, which checks for 5 different cancer types, it might require extensive testing to locate a potential cancer. That is why it’s important for cancer detection methods to be both sensitive and specific. Before widespread blood testing for cancer can be considered, these issues must be further resolved.

“This is something that’s used to assess for minimal residual disease in patients who have undergone surgery and appear to be ‘cured’ of the disease. The test is looking to see if there is any circulating tumor DNA being shed from whatever tumor is left behind.” – Benjamin Weinberg, MD

Reasons to Be Optimistic

Despite the challenges described, the results of these latest research findings are exciting for 2 important reasons. First, the ability to leverage machine learning to advance cancer research suggests tremendous innovations may be around the corner. And secondly, tests like PanSeer may offer immediate benefit to people who have already undergone treatment and need close monitoring. This type of blood test for cancer could provide early detection of recurrence that could guide better care. All of this provides reasons why optimism and hope surround these latest cancer research findings.

 

To read more about one person’s heroic battle against cancer, check out Ed Kopko’s PROJECT BOLD LIFE: The Proven Formula to Take on Challenges and Achieve Happiness and Success, which delves into Pam Sloate’s personal fight.

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