Superforecast loss of power for example region <- this would be a hard one but very important
any regions on your mind?
Something useful for prepping, because that’s the purpose of the exercise.
And I doubt many of these analyses will be done, because even with a template to follow it’s a lot of work.
That means somewhere rural.
Preppers be like “Hurr durr collapse is gonna be candy and unicorns for me, gonna show those DEMONRATS what for, hurr durr,” and I’d like to disabuse them of that notion also.
California is the future, and it will soon be distributed. And the normies aren’t going to wake up, they’re going to lie down and take it like good little bitches.
We are all Northern Californians now.
I want to end up in Western Michigan, let’s do a rural place 60 minutes outside one of the cities.
Ok. I know basically nothing about the area but let’s see what we can draw up
I was thinking yesterday there may be studies out there for this kind of thing, so it may pay to be a bit opportunistic here.
I.e. We should look for work that’s already been done on the subject and see if any of the selected regions fits the bill.
So…economic case studies, analysis of demographics, that sort of thing?
Yeah, and it just now occurs to me these would be especially prevalent in safety-critical situations like hospitals and nursing homes.
Hospitals have backup power, but there will be risk analyses for situations where the outage outlasts the generators.
“The results of the study shows that most weaknesses of the preparedness of hospitals are represented by inadequately addressed reserves of fuel for the main backup power supply, poor knowledge of employees who are insufficiently retrained, and old backup power supplies (even 35 years in some cases)”
This is good
And, of course, you would want to look at the power grid in general
So power, food, demographics, ability to withstand disruptions (this will be key)
What else do we need to consider?
Are we only talking about risk factors for power outages?
Shit, that’s a good Google search term.
no, was thinking more broadly
yeah, let’s focus just on risk factors for power outages
Good references section in that one.
This may also be a good “phone a friend” situation.
My sister’s friend’s fiance is an electrical power distribution engineer.
I’d stick that sort of thing into the “preparation” aspect, not the forecasting aspect, but it’s relevant
It’s the “what to do in context” as opposed to the “context”
Yeha, definitely going to have to dig into this a bit later
Big picture, it would be interesting to get numbers on trends in electricians and similar fields, maybe even closures of small businesses
Nah, that’s probably chasing castles n the sky on this
ECEI = European Critical Electricity Infrastructure
Taken from http://library.lol/main/5B2A7C5C324A16B14523A8CA21F17DB1
Little late for saving Europe at this point
Well yeah, but it was the only hit on libgen for “electric power system reliability
Oh hang on, small changes to the search terms bring up other books.
Was being a bit facetious lol
Yeha, i think this is a “return to later after research topic”
“According to the overview of recent electric power blackouts and near
misses in Appendix 1, the following factors may pose risks to system
x Technical failure of critical grid components. The unanticipated outage
of critical infrastructure components such as generators, transmission
lines or transformers (due to causes such as e.g. ageing, overheating,
extreme duty) may put the system into emergency conditions.
x Inadequate inspection / maintenance practices. Inadequate maintenance
may lead to an increase in equipment failure.
x Adverse operation of line protection devices. The automatic
disconnection of one or more critical transmission network components
due to an apparent fault may accelerate the geographic spread of a
failure and reduce the available time for intervention by an operator.
x Too sensitive settings of generator protection devices. The “early”
disconnection of generators because of protection devices settings,
which are more sensitive than required by the grid connection rules
regarding frequency and voltage disturbances, adversely affects voltage
and frequency control.
x Inefficient Load Shedding. Inadequate automatic or manual load
shedding can actually contribute to the development of a blackout.
x Insufficient cooperation and communication between operators.
Inadequate joint emergency procedures and data exchange among the
involved TSOs, and between the TSOs and the distribution and
generation operators respectively, can be a critical factor in case of a
x Insufficient system overview by operators. Insufficient real-time
informat- ion about the power system may lead to inadequate
assessments of the situation followed by inadequate countermeasures
after a contingency.
x Adverse behaviour of the operator. Unanticipated human failure by
operators (generation, transmission or distribution) can influence the
extent of a power failure.
The following factors were identified to complicate and delay the
restoration after a widespread blackout:
x inability of generators to switch on the house-load operation,
x insufficient generators with black-start capabilities, and
x failure of electricity-dependent telecommunication.”
Still not finding much in the way of quantified risk factors…
But I’m convinced it’s out there.