However, given the huge amounts of exo planets discovered everywhere around us in the last year or two, I consider it highly unlikely that we are alone.
299 karma · joined May 26, 2012
However, given the huge amounts of exo planets discovered everywhere around us in the last year or two, I consider it highly unlikely that we are alone.
To get you started... you could try to think about the cliche "how to be the person selling shovels in the gold rush".
Write an online course on how you parametrized RNNs to predict Bitcoin markets. I got it to work well on predicting a certain low frequency event well with not too much effort. This resulted in 2~3 trade opportunities per day, making only very few $ each trade. So no luck in the gold rush but maybe not a bad shovel to sell?
Switch professions, maybe? 2.2M$ are not uncommon if you can wait a few years... Become a medical doctor and freelance across the country? Enter the middle management in any 200+ B$ company? Marry into a rich family? Low tier drug dealer in Europe (short prison times)? All of the above require working long/stressful hours over years. This brings me back to my first point: forget about the 2.2M and do s.th. you enjoy doing.
I am wondering how this compares to the TALOS-N [1] server from Ad Bax (NIH) with 9000+ proteins in its DB? This, too, uses machine learning to 'fit' a predictor for secondary structure (dihedral angles) for backbone and side chain torsions based on chemical shifts.
- HEADLINE: remove sha1 PPA signatures
- DESCRIPTION: remove the warning "signature by key uses weak digest algorithm (sha1)" and ban sha1 for PPA signatures
- ROLE: user
- 1U single socket Supermicro Xeon E5v4-2630 10core+1GTX1070 GPU = 1500EUR
- operation costs (power+cooling) over 3 years = 1500EUR
- cost of 2 hardware admins 160k/year
- renting local rack space 15EUR/U
This equals about 145 servers for 3 years for us for 1 Million. The setup is highly optimized for _one_ set of data crunching tasks, not DB. We do not need much ram, or network but require a specific CPU/GPU ratio.
However, quickly there will be many new local competitors. Who wouldn't start such a business in their own local town anywhere? Buy a few cheaper autonomous cars (10 Model III+upgrades) and have them drive around your neighborhood. Call it 'EcoGreenCar LLC'. There will certainly even be an open source software platform to manage autonomous micro fleets.
The energy costs for indoor climate / light regulation can quickly become outrageous compared to super market veggie prices. Therefore, I think this type of tech is for rare exotic plant, maybe historical even.
Imagine buying a piece of tech for growing historical coffee plants in your basement where you set the climate control to Kenia or Hawaii (buy the soil addon?) and which guarantees (as in `likely it will yield') you 2kg of your own personal coffee harvest per plant. This stuff has urban hipster $$$ written all over it.
It works! :-) how cool...
PLUS: ST still has a super quick loading time which makes it a great addition to emacs/vi in some use cases.
this cfg entry:
// Enable usage data and errors to be sent to Microsoft.
"telemetry.enableTelemetry": true,
[0] http://scitation.aip.org/content/aip/journal/jcp/128/10/10.1...
Take for example a single water molecule in vacuum: If you calculate the QM vibrational (motion of the nuclei) and electronic frequencies you would conclude that there is no way that microwave radiation can excite a water molecule. This is because the nuclei interact with three discrete (quantized) frequencies in the infrared (IR light), whereas the electronic degrees of freedom only interact with much higher energy photons (UV and above).
However, if you now move into the bulk, you will notice that there are is also an interaction energy between the water molecules which causes rapid changes in the water conformation at room temperature. From the quantum mechanical perspective, you now get an explosion of possible states including states which excite the hydrogen bond network between the water molecules. You can now induce translation and rotation of water with respect to each other. This is why water absorbs across a large spectrum of frequencies including radiation in the microwave region.
For DNA, the situation is similar. You will also find a continuous broadening of states. BUT how well you absorb energy at a given frequency still varies. Cell phone bands do not carry enough energy to break electronic bonds directly (unlike UV light). Instead, you can only induce thermal motions of the nuclei (heat). Luckily, our DNA transfers excess heat very rapidly (~picoseconds) to its environment, so no danger of local heating to the point of bond breaking if you don't climb up a massive cell phone tower.
In the end, its very unlikely that cell phone radiation alters chemical bonds in our DNA. However, beware of the sun while talking on the phone! I would guess that outdoor usage of cell phone significantly increases the dangers of cell phone usage. ;-)