Or at least a really long time. Here are just some of the public discussiond on death, disease, and dying.
Everyone is working on this DARPA are working on ways to eliminate the need for antibiotics altogether, other schools and corporations are working on using nano particle drugs to kill disease and repair the human body at the cellular level.
So will people die? Sure, but I firmly believe there are people alive today who will live for 200 or more years or possibly only die when they choose to (other than violent death).
https://www.wired.com/2011/11/darpa-nano-antibiotics/
https://www.theguardian.com/what-is-nano/nano-and-the-life-saving-future-of-medicine
There are even groups trying to get aging labeled as a disease to help speed up a "cure".
So as you see, the future of medicine seems to be moving at a rapid rate. So which of these do you think is the most viable? And would you WANT to live for 200, 300, or 1000 year? Or maybe forever? Because obviously the longer you live, the more technology advances, and if you make it to a certain point there will be technology to keep you living forever.
Everyone is working on this DARPA are working on ways to eliminate the need for antibiotics altogether, other schools and corporations are working on using nano particle drugs to kill disease and repair the human body at the cellular level.
So will people die? Sure, but I firmly believe there are people alive today who will live for 200 or more years or possibly only die when they choose to (other than violent death).
https://www.wired.com/2011/11/darpa-nano-antibiotics/
As long as theyve got a replacement at the ready, of course. In the militarys latest round of small business solicitations, Darpa is making a long-shot request for an all-out replacement to antibiotics, the decades-old standard for killing or injuring bacteria to demolish a disease. In its place: the emerging field of nanomedicine would be used to fight bacterial threats. The agencys Rapidly Adaptable Nanotherapeutics is after a versatile platform capable of rapidly synthesizing therapeutic nanoparticles to target unknown, evolving and even genetically engineered bioweapons.
https://www.theguardian.com/what-is-nano/nano-and-the-life-saving-future-of-medicine
Medical nanorobots will be the size of bacteria, composed of thousands of molecule-sized mechanical parts perhaps resembling gears, bearings and ratchets. They may be composed of a strong, diamond-like material. A nanorobot will need motors to make things move, and manipulator arms or mechanical legs. It will need a power supply, sensors to guide it, and an onboard computer to control its behaviour. But unlike a regular robot, a nanorobot will be smaller than our red blood cells and able to squeeze through our body's narrowest capillaries.
What will they do? A "microbivore" nanorobot, for example, could act as an artificial white cell, seeking out and digesting germs bacteria, viruses, or fungi in the blood. A patient might be injected with a dose of about 100bn of these microbivores. A targeted germ would stick to the nanorobot's surface like a fly caught on flypaper. After being gathered into the microbivore's "mouth", the germ would be minced up and digested into harmless molecules in just minutes.
A complete treatment of this kind might take just a few hours far faster than the days or weeks often needed for antibiotics to work and no bacteria would have time to evolve resistance to these machines as they can to antibiotics. When the nanorobotic treatment is finished, the doctor might broadcast an ultrasound signal to direct the nanorobots to the kidneys where they would be painlessly passed out in the urine. Similar nanorobots could be programmed to quickly recognise and digest even the tiniest clusters of young cancer cells, long before they spread throughout the body. Cancer would no longer threaten our health.
Medical nanorobots could also perform surgery on individual cells. In one proposed procedure, a surgeon-controlled nanorobot called a "chromallocyte" would extract all the chromosomes from a diseased cell and insert new ones in their place. The new chromosomes would have been manufactured outside the patient's body using a desktop nanofactory. After injection, each nanorobot would travel to its target cell, enter the nucleus and replace the chromosomes, then exit the cell and leave the body. If the patient chooses, inherited defective genes could be replaced with non-defective base-pair sequences, permanently curing any genetic disease and even permitting cancerous cells to be reprogrammed to a healthy state.
IBM has revealed a hi-tech gel that could obliterate hospital superbugs.
The computer firm hopes its breakthrough could replace antibiotics.
The new antimicrobial 'hydrogel' could be used for creams, coating for medical instruments and injections into infections wounds.
There are even groups trying to get aging labeled as a disease to help speed up a "cure".
So as you see, the future of medicine seems to be moving at a rapid rate. So which of these do you think is the most viable? And would you WANT to live for 200, 300, or 1000 year? Or maybe forever? Because obviously the longer you live, the more technology advances, and if you make it to a certain point there will be technology to keep you living forever.