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This week, Kathy Niakan, a biologist working at the Francis Crick Institute in London received the green light from the UK’s Human Fertilisation and Embryology Authority to use genome editing technique CRISPR/Cas9 on human embryos.

Niakan hopes to answer important questions about how healthy human embryos develop from a single cell to around 250 cells, in the first seven days after fertilization.

By removing certain genes during this early development phase using CRISPR/Cas9, Niakan and her team hope to understand what causes miscarriages and infertility, and in the future, possibly improve the effectiveness of in-vitro fertilization and provide better treatments for infertility.

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Another example backing up the fact that AI and any brain mapping & cognitive thinking efforts will require both male and female engineers leading and developing AI together.


Male and female behavioural differences correlate with their different brain networks, say researchers, including one of Indian origin… Read health articles & blogs at TheHealthSite.com

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I don’t believe it! A City Comprised of Robots; it really is happening. Why do I all the sudden feel like I am watching an episode of “WestWorld” being played out in reality.


TSUKUBA, Ibaraki Prefecture–A start-up firm here is planning to construct a futuristic “city of robots” that relies on robotic and cybernetic technologies to assist with the daily lives of humans.

Cybernic City is the brainchild of Cyberdyne Inc. President Yoshiyuki Sankai, a professor at the University of Tsukuba, known for developing the robot suit HAL (Hybrid Assistive Limb) power assist device for applications in health care and welfare.

Cybernic City will be built in Tsukuba, where the company has its headquarters, and will feature a research-and-development center, senior citizen housing and other facilities on 8.4 hectares of land.

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As long as there is no level of “personable experience/ empathy” AI will not eliminate the need for doctors or other medical staff members. For example, a female of 30 yrs of age newly married talking to a stone face robot that she has stage 3 breast cancer for first time. Yep; I see that one going well.

Plus, can you imagine how children in hospital wards for several months at a time will come out with only robots w/ no “EMPATHY.” I believe there are plenty of pyshcological case studies on this. If you ever want to advance AI; you must have women heavily embedded in its development as well as leading the work around it; or you will never get there.

Here’s another thought — can you imaging the potential lawsuits in the making because a child was proven to be impacted by only having interactions with robots in the children’s ward for months a time. Especially, when the robots that cannot connect due to the lack of design of “empathy”. Who gets sued? Hospitals, tech companies, etc.? This list could go on and on. So, again you must have various perspectives in the AI design in place or you could really be in trouble on a large scale.


Imagine your child requires a life-saving operation. You enter the hospital and are confronted with a stark choice.

Do you take the traditional path with human medical staff, including doctors and , where long-term trials have shown a 90% chance that they will save your child’s life?

Or do you choose the robotic track, in the factory-like wing of the hospital, tended to by technical specialists and an array of robots, but where similar long-term trials have shown that your child has a 95% chance of survival?

Australian scientists hope that a tiny device just 3cm long and a few millimetres wide will enable paralysed patients to walk again by allowing them to control bionic limbs with the power of subconscious thought.

The new device, dubbed the “bionic spine”, is the size of a small paperclip and will be implanted in three patients at the Royal Melbourne hospital in Victoria next year. The participants will be selected from the Austin Health spinal cord unit, and will be the first humans to trial the device, which so far has only been tested in sheep.

Doctors will make a tiny cut in the neck of the patients and feed a catheter containing the bionic spine up through the blood vessels leading into the brain, until it rests on top of the motor cortex, the part of the brain where nerve impulses that initiate voluntary muscle movements come from. The catheter will then be removed, leaving the bionic spine behind.

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