Refreshing as a cool breeze on a hot summer's day.
1,899 karma · joined August 30, 2017
Refreshing as a cool breeze on a hot summer's day.
An example is the National Science Foundation NEON project, which is a long-term ecological monitoring initiative with common field methodologies across 81 North American sites. https://www.neonscience.org/
The 'computer scientist' quote illustrates a frustrating trend: tech-centric 'drive-bys' that lack the ecological context required for good science. On the flip side, the 'old guard' who ignore modern data assimilation are leaving massive potential on the table. The field is rightfully shifting from site-specific anecdotes to foundational, broad-scale work, but we need both skillsets to do it justice.
This is particularly relevant for low-altitude incursions and drones.
Now, other large governments (UK) have resolved this in several ways, including the deployment of additional radars on and within the turbine farms themselves.
So clearly this is politically motivated, and they're using what seems to be a real but solveable concern as a scapegoat.
> ...actual water consumed by data centers is around 66 million gallons per day. By 2028, that’s estimated to rise by two to four times. This is a large amount of water when compared to the amount of water homes use, but it's not particularly large when compared to other large-scale industrial uses. 66 million gallons per day is about 6% of the water used by US golf courses, and it's about 3% of the water used to grow cotton in 2023.
https://www.americanimmigrationcouncil.org/research/h1b-visa...
I think we still have some room to grow there in terms of aesthetic for the majority though.
undoubtedly a progressive achievement in the field, despite it all
This is excellent advice, and in my experience does not represent the intuition that many young (and not so young) researchers begin with.
Papers come from projects and, if you care, good projects can yield many good papers!
I work for a company (onXmaps) which produces user-friendly maps of such information. You could use our app to create such a "rolodex" of your neighborhood, by annotating individual parcels with your neighbors' information.
Furthermore, as the OP's article alludes to, snow _amount_ is only one component that contributes to water availability, particularly its timing. Larger amounts of snow that melt very fast in the spring create a novel regime that our current systems aren't well-suited to support, for example.
This is true, and I definitely agree that the majority of the work to match consumption with water availability lies in the hands of agriculture.
With that said, it's important to recognize that the CO basin states (AZ, WY, UT) have some of the highest per-capita domestic water use figures in the nation - far above the national average.
While perhaps it might be intuitive to you that transpiration impacts streamflow (which, if it is, you should consider a career in water resource management!), it's not sufficient to stop there when trying to model the future.
It sounds like you know this already, but the core issue here is that the 1922 agreement which divided the river's flow to various stakeholders overestimated the amount of water in the river even before the impacts of our modern warmer, drier climate.
We're left with the consequences of this overestimate mostly in the form of gridlocked renegotiation conversations as the agreement is reworked for the modern resource scenario.
Probably the biggest tl;dr here is: it's not going to be 60 million people fighting over water. It's going to be far fewer, and they're all alfalfa farmers.
The article states that MIT pays $300,000 annually for individual request fees, far less than the prior contract amount.