In one future world, we will live in the less expensive suburbs or rural areas, and come into the city for work in our driverless vehicles. To avoid expensive parking fees, we’ll send our vehicles out to roam around, hang out at the mall and grocery store and come pick us up when work is over. The possibility of hoards of driverless and riderless vehicles on the streets and in parking lots, hovering, just waiting for instructions, seems like the opening scene of a movie where you know things are about to go terribly wrong.
This scene of the zombie vehicles taking over the parking lots and streets of urban centers is quite possible. But a University of California professor is working to save us all.
Lewis Fulton’s 3 Revolutions Policy Initiative
A professor at the Institute of Transportation Studies at the University of California, Davis, Fulton has been publishing work on a mobility program for the future world. He says, and back up his claims with science, that three things have to change simultaneously for the future of transportation and climate change to work: electric vehicles, autonomous vehicles, and ride-sharing. The Paris Agreement in 2015 hopes to keep global warming at 1.5 degrees. Some estimate this means 100 million new electrical vehicles on the road by 2030.
The snake in the woodpile is the lithium-ion battery, and the extensive mining for raw materials that is needed to supply the battery power for electric vehicles. There is concern that the current levels of energy use to produce these batteries means they will have a higher carbon footprint for much of their life, compared to current petroleum-based internal combustion engine vehicles. We can hope that the scientists who are working on this technology can continue to improve methods and materials used in manufacture, and lower the carbon footprint of these batteries. Continue reading
Healthcare stakeholders are searching for ways to apply Big Data to drug development. Until recently, clinical trials were the primary method of collecting data and measuring whether a drug worked well and was safe. But the recent digitization of health records and healthcare claims has sparked new ideas about which data is relevant when evaluating drugs, including real-world evidence.
Real-world evidence is data from patients’ experience with a drug, outside of research settings. Pharmaceutical companies, regulatory authorities, and insurance companies are determining how this data will affect recommendations for prescribing drugs.
If you stay current with technology news, you have certainly heard of the Internet of Things. If not, in a nutshell, the term essentially refers to any item or the capability of any item to be equipped with a sensor (e.g. in healthcare). This sensor would be able to collect data, and send it to another sensor or databank, and also be capable of taking action based on data recorded.
As far as healthcare is concerned, the IoT is not being utilized anywhere near its potential. There are devices and monitors in use now, but they are primarily personal use items such as fitness trackers and such.
There are an infinite number of uses for IoT in healthcare. There is the potential to improve patient care, facilitate research, streamline physician workloads, and from the administrative end of healthcare, save large amounts of time and money. Continue reading
“Home” is where the customer is. The physical home is an extended home-zone, nowadays. If you want to be successful with your services, you have to reach the customer at his home where he uses his devices and sensors. More and more services are anchored at the customer-home – more services for easier coping with everyday life. The customer autonomy continues.
The battle for the living room of the consumer has not ended, as traditional lines of business still have to find their way to the living room of the customer. Technology is the enabler to reach the customer. The right sensors, the right App, the right Infrastructure is needed to generate a value added for the customer. And finally, (Data-)Security and Data Intelligence have to create real benefits for the customer.
Latest developments and examples are:
- 3-D printing: manufacturing at home
- Drones: logistics to your door
- Smart meters: energy autonomy for your home
- IoT: Sensors and Data-Intelligence decide for a lot of repetitive tasks what to do
- Streaming vs TV: you decide what to watch
- Smart loudspeaker
All those customer centric services increase customer autonomy. Technology is hereby an enabler. The more your business model supports customer centric autonomy, the higher the revenue potential. Continue reading
Geoengineering, also called climate engineering, is a group of technologies that are seeking to mitigate the effects of climate change by two methods. The first of these, CDR, stands for carbon dioxide removal. The second is SRM, or solar radiation management.
CDR technologies are trying to remove the excess carbon stored in the atmosphere–greenhouse gases and emissions. When businesses and activists talk about the “carbon footprint,” they are talking about the total carbon emissions from a human activity. Positive carbon footprints mean the excess carbon we produce is hanging over our heads, stuck in the atmosphere.
What exactly is geoengineering? Engineers are working on technologies that will slow or reverse the consequences of climate change. These are two basic types: carbon dioxide removal, or CDR—this tech removes emissions and greenhouse gases. The second type is solar radiation management, or SRM. This tech reduces the amount of solar energy warming the planet.
Two concerns are at the top of a long list of concerns regarding efforts to reduce or reverse climate change. Do we understand the effects of a single change introduced into a complex system? Does complexity itself predict that we cannot know the consequences of a single change introduced into a system of great complexity, such as the atmosphere of the earth? Continue reading
The dress works like this: it’s made of efoil, a new textile that is engineered to change opacity, and connected to an integral heartbeat monitor. When the wearer’s heartbeat accelerates, such as with the approach of a lover, the dress turns transparent. Part of an ongoing collaborative series about intimacy, technology, and fashion, the Intimacy 2.0 dress is the work of FashionTech designer/engineer Anouk Wipprecht and Dutch Studio Roosegaarde.
The majority of Anouk Wipprecht’s FashionTech clothing, a wonderful mix of robotics, artificial intelligence, and wearable electronics, features a fierce beauty, like powerful exoskeletons, clothing that is ours to command. This FashionTech isn’t designed to make us pretty, but to make us powerful, a wearable host-system that can poke the eye out of any stupid bastard that approaches us with evil intent. The fierceness of most FashionTech, clothing that will bring a smile of delight to the eyes of powerful women everywhere, is why the Intimacy 2.0 dress has it backward.
Imagine this. You walk into a party, dressed to the nines in your new efoil dress, and naturally you feel a bit nervous, a bit excited, so your heart is beating excitedly, and then, just as you always knew it would, your clothing betrays you, turns translucent, and you stand naked in front of a crowd of strangers.
Your heart beats faster with the approach not just of a lover but of an enemy. A heart beats faster with challenge, dread, excitement, and what we need our clothing to do when our heart beats faster is to protect, not reveal. Continue reading
The last years have seen a number of exciting startups securing venture capital and developing innovative products that include healthcare wearables. FemTech is the name for the women-led, women-designed new product startups, and the success of these traditional and consumer health care products can be summed up in two words: market potential.
Women’s healthcare has been underfunded by the research and development world, but the last few years have seen a number of innovative products brought to market. While much of femTech is focusing on reproductive technology and sexual health, such as fertility startups that are helping young women harvest and save their eggs for later childbirth decisions, to a birth control telemedicine and delivery model, to apps that are as sensitive as the birth control pill for contraception, not all the focus is on reproductive health.
Cardiovascular disease remains the number one killer of women worldwide, and Bloomer Tech is developing a number of wearables with biometric sensors to collect and analyze heart heath data. The data can be used to guide real-time medical decision making, while collecting big data amounts of women’s heart health data for research. The material developed has flexible, washable circuits embedded in textiles, a technology that will allow a number of interesting developments in the ability of wearables to collect biometric data. Their first product is a bra with the flexible circuits embedded to collect data on heart disease risk factors. It communicates to an app on a smartphone via Bluetooth. Most important, the user decides on how much and what data can be shared with a medical professional, researcher, or other person.
Bellabeat, the maker of LeafUrban jewelry, is leading the jewelry/design/health monitoring pack. The beautiful leaf-shaped jewelry looks nothing like a fitness tracker, and provides several important tools for women hoping to find a better tool to monitor health: it helps track menstrual periods, so women can keep track of fertility and contraception, and it monitors signs of stress and offers guided meditation. Like other health and fitness devices, it monitors activity and sleep, and gives the user data.
However, the largest amount of VC funding remains with startup companies focusing on a product that has both cachet and market potential. Many, or most, new products focus on women’s sexual and reproductive health. Elvie raised $6 million for a small device to help women do Kegel exercises properly. Women’s health care startups in FemTech have raised, to date, over $1.1 billion for research and development. Continue reading