Earlier quoted context omitted.
It took 15 if not 20 years to commercialize even such obvious, low-tech thing as radio telegraph, which can literally be built form common house supplies. It happened about 60 years after Maxwell predicted the electromagnetic waves theoretically. Red LEDs were invented / discovered in 1920s, became commercially successful as indicators in 1960s. Optical fibers were invented in 1920s or so, became a commercial success…
It doesn't take long to commercialize feasible new tech in this day and age. If someone invented an electromagnetic hovercar tomorrow, it will be available for sale next week and regulations will follow after.
447 TB/cm² at zero retention energy – atomic-scale memory on fluorographane
111–120 of 169 posts
Re: 447 TB/cm² at zero retention energy – atomic-scale memory on fluorographane
#112Earlier quoted context omitted.
It took 15 if not 20 years to commercialize even such obvious, low-tech thing as radio telegraph, which can literally be built form common house supplies. It happened about 60 years after Maxwell predicted the electromagnetic waves theoretically. Red LEDs were invented / discovered in 1920s, became commercially successful as indicators in 1960s. Optical fibers were invented in 1920s or so, became a commercial success…
It doesn't take long to commercialize feasible new tech in this day and age. If someone invented an electromagnetic hovercar tomorrow, it will be available for sale next week and regulations will follow after.
In short, if a tech takes 40 years to be commercialised it would have been invented some time in the 80s.
Re: 447 TB/cm² at zero retention energy – atomic-scale memory on fluorographane
#113Every year or so there's a new article about some new spectacular storage medium. Crystals, graphene, lasers, quartz, holograms, whatever. It never materializes. Demonstrating this stuff is possible isn't the hard part, it seems. Productionizing it is. You have to have exceedingly fast read and write speeds: who cares if it can store an exabyte if it takes all month to read it, or if you produce data faster than you…
Re: 447 TB/cm² at zero retention energy – atomic-scale memory on fluorographane
#114Earlier quoted context omitted.
It doesn't take long to commercialize feasible new tech in this day and age. If someone invented an electromagnetic hovercar tomorrow, it will be available for sale next week and regulations will follow after.
What advantage would hovering have?
Re: 447 TB/cm² at zero retention energy – atomic-scale memory on fluorographane
#115Earlier quoted context omitted.
That’s amazing. Do you have a home lab with an atomic microscope where you do your research? And what’s the reason for going solo vs a research university, where I assume this type of research could be significantly sped up?
No lab — the work is computational. All calculations run on a Dell Precision workstation with ORCA (quantum chemistry) software. An experimental collaborator is now preparing the C-AFM validation. The solo approach is a consequence of the work spanning multiple fields that don't share a single department.
Re: 447 TB/cm² at zero retention energy – atomic-scale memory on fluorographane
#116Re: 447 TB/cm² at zero retention energy – atomic-scale memory on fluorographane
#117Earlier quoted context omitted.
No lab — the work is computational. All calculations run on a Dell Precision workstation with ORCA (quantum chemistry) software. An experimental collaborator is now preparing the C-AFM validation. The solo approach is a consequence of the work spanning multiple fields that don't share a single department.
Couldn't you potentially get some smaller grants from each of the fields? Or is that too much paperwork. It always seems so much work to get those grants.
Re: 447 TB/cm² at zero retention energy – atomic-scale memory on fluorographane
#118Earlier quoted context omitted.
It took 15 if not 20 years to commercialize even such obvious, low-tech thing as radio telegraph, which can literally be built form common house supplies. It happened about 60 years after Maxwell predicted the electromagnetic waves theoretically. Red LEDs were invented / discovered in 1920s, became commercially successful as indicators in 1960s. Optical fibers were invented in 1920s or so, became a commercial success…
It doesn't take long to commercialize feasible new tech in this day and age. If someone invented an electromagnetic hovercar tomorrow, it will be available for sale next week and regulations will follow after.
“Feasible” is doing some heavy lifting there. The whole point of the comment you replied to is that it can take a long time for some new physical technique to become commercially feasible.
Re: 447 TB/cm² at zero retention energy – atomic-scale memory on fluorographane
#119Earlier quoted context omitted.
It doesn't take long to commercialize feasible new tech in this day and age. If someone invented an electromagnetic hovercar tomorrow, it will be available for sale next week and regulations will follow after.
What advantage would hovering have?
Re: 447 TB/cm² at zero retention energy – atomic-scale memory on fluorographane
#120Earlier quoted context omitted.
It doesn't take long to commercialize feasible new tech in this day and age. If someone invented an electromagnetic hovercar tomorrow, it will be available for sale next week and regulations will follow after.
Waymo has cars that drive themselves and are dramatically safer than people in most conditions and yet they're only in select cities. Do you just think Google hates money, or does this only work for hover cars
With the help of “remote assistance”, that is. Which is probably one of the reasons for the limited rollout.