These shoes developed by Puma and MIT Design Lab, use bacteria to improve athletic performance.
Puma and MIT Design Lab is developing products with a biological makeup. The idea behind this collaboration is that there is a more complete athletic experience when humans wear living, adaptable products.
“Deep Learning Insoles” and “Breathing Shoes.”
Bacteria is the secret ingredient to the Deep Learning Insoles. Placed inside discreet crevices on the top layer of the insole, bacteria is able to detect compounds present in sweat. The bacteria then responds by changing the conductivity of the insole. The next layer registers these changes. The third and final layer broadcasts the information to the user’s smart device. Users can read all about their fatigue and performance level in real time.
The Breathing Shoe has a biologically active shoe material that is home to microorganisms. The material learns a user’s specific heat patterns and opens up ventilation based on those user-specific heat patterns. Every user winds up with a unique shoe.
VR along with related technologies, AR and MR shows genuine potential to enhance learning outcomes for students of all ages across a variety of disciplines.
The benefits of VR in particular are based around participatory as opposed to passive learning to drive greater knowledge retention.
The virtual tour has been promoted as the premier application for the utilization of VR in K-12 to date, allowing students to visit locations outside of the classroom without the associated cost of a real life field trip.
The medical sector has been another area of focus with a number of high profile trials taking place including those sponsored by Pearson and Microsoft. Virtual labs to support scientists in conducting otherwise dangerous or costly experiments are also an opportunity for scalable VR deployment going forwards and unlike virtual tour applications, offer potential for monetization. Language learning offers similarities to simulation based training experiences with existing provision to the consumer market expected to translate to institutional sales in the mid to long term.
Creative tools servicing specific vocational subjects like architecture, engineering and product design are also expected to be a key driver for VR adoption in universities but these solutions are typically provided to students without charge by providers looking to seed future users in industry.
Head mounted display (HMD) manufacturers including Oculus, Google and Microsoft are partnering with educational publishers and content providers to develop content for education. Shipments of VR headsets to the higher and further education sector are expected to reach 700,000 units in 2021 accounting for $150 million in revenue. PC based and all in one solutions (the combined purchase of a headset and mobile device) are each forecast to account for a sizeable share of shipments. Sales of higher priced AR headsets are expected to escalate later in the forecast period with major hardware releases slated for the back end of the decade.
In the K-12 market, the number of students accessing HMD based VR/MR/AR content in K-12 institutions is expected to grow from 2.1 million in 2016 to 82.7 million in 2021. The majority of use cases will be supported by all in one headsets.
The world’s first lab-grown burger was unveiled to the world in 2013 carrying a price tag of $330,000 and said not all that tasty.
Scientists are busy creating artificial meat. It’s not just cow-free beef burgers on the future menu — several groups around the world are attempting to clone chicken breasts and fish fillets, as well.
One of the big takeaways from the 2013 cultured burger demo was that meat just ain’t right without fat. So, Post’s lab is now culturing fatty tissue in addition to muscle fibers. Working out that process has taken some time. Until now, there hasn’t been a whole lot of scientific interest in culturing fat cells, and methods that did exist used chemicals we don’t really want to be eating.
Post’s lab is culturing beef fat and muscle tissue separately, and mixing the two after the fact. In the future, Post imagines combining the two cell types in a co-culture. But first, there are a couple other burger basics the team is trying to improve on.
Designer pets” are already within reach; mice have been turned green. Beagles have been doubled in muscle mass. Pigs have been shrunk to the size of cocker spaniels with “designer fur.” Woolly mammoths are being attempted.
Illustration: Chelsea Beck/GMG
They are predicting that half of the population with decent health care will–have eggs grown from human skin and fertilized with sperm, then have the entire genome of about 100 embryo samples sequenced, peruse the highlights, and pick the best model to implant.
traits could changed in a designer baby
Embryo screening involves a process called pre-implantation genetic diagnosis (PGD). Embryos are created by in-nitro fertilization and grown to the eight-cell stage, at which point one or two cells are removed. Scientists then examine the DNA of these cells for defects, and only normal embryos are replaced in the womb.
Three-parent babies are human offspring with three genetic parents, created through a specialized form of In vitro fertilization in which the future baby’s mitochondrial DNA comes from a third party. The procedure is intended to prevent mitochondrial diseases including muscular dystrophy and some heart and liver conditions.
Pros and Cons of Designer Babies
Reduces risk of genetic diseases
Reduces risk of inherited medical conditions
Keep pace with others doing it
Better chance the child will succeed in life
Better understanding of genetics
Increased life span
Can give a child genes that the parents do not carry
Prevent next generation of family from getting characteristics/diseases
Termination of embryos
Could create a gap in society
Possibility of damage to the gene pool
Baby has no choice in the matter
Genes often have more than one use
Geneticists are not perfect
Loss of Individuality
Other children in family could be affected by parent’s decision
Only the rich can afford it
Some scientists disagreed over whether certain types of gene-editing would be important for helping patients, with one prominent researcher contending the technology would not often be needed, while another described dire current clinical needs for it.
CRISPR is a powerful technology that allows editing—by way of replacing or repairing—of multiple genes at once in animal, plant and human cells. This biological tool could help unlock understanding of basic human biology and also help patients in need of medical care. However, This method has also sparked new ethical controversy.
Gene editing could include altering genes in one person—say to treat disease or make a cosmetic change—but, more controversially, it could also include making changes to the germ line that would then alter the genome for an individual’s children, grandchildren and the following generations, with potentially unknown repercussions.