I read the rest of the FAQ, signed up for Twilio, and their API worked to identify the number.
1,597 karma · joined May 11, 2020
I read the rest of the FAQ, signed up for Twilio, and their API worked to identify the number.
I tried the method spelled out here for my latest batch of "Your USPS package has arrived" texts, but the phone numbers (example: +63 936 631 6676) just give an "invalid number" response. Not unexpected.
Every official channel seems to be failing us on this one. Spam calls still exist, spam texts still exist, and even fake government websites still exist. I don't understand why a .com site like https ://usps.com-helpnk.com/ is still up.
>>> 1 month -> seconds
= 2_629_746 s [Time]
Just playing around with this and really enjoying it.Maybe it's time to implement Winter Hours, a 35 hour work week from December through February.
https://duckduckgo.com/?q=Nokia+twist&kp=1&t=ffab&iar=images...
Array.from(document.querySelectorAll('*')).forEach(el => {el.style.resize='both'})You're expected to enter all of your income, sort out what portion of your income is taxable, determine the amount you can deduct from your taxable income, figure out what tax credits you're entitled to, calculate how much tax you already paid and what you still owe or should be refunded, and decide how you want to pay or be reimbursed.
In the simplest case it's straightforward.
But for anything other than the simplest case it quickly becomes a mess of additional forms (called schedules). Currently there's 3 main schedules (1, 2, 3) for Income Adjustment, Additional Taxes, and Additional Credits. And each of those references addition schedules and forms. Here's schedules 1, 2, 3: https://www.irs.gov/forms-pubs/about-form-1040 Here's a list of the other schedules: https://www.irs.gov/forms-pubs/schedules-for-form-1040 and a search for all the forms and instructions: https://www.irs.gov/forms-instructions-and-publications
The good news is, after all that, if you make a mistake the IRS will tell you what you actually owe and send you either a bill or a check for the difference.
”We were already looking for a spot because I got into a housing program. [...] For the month, I need $3,000 to get through and live paycheck to paycheck. But then getting approved and accepted for it [DBIP], it was definitely a relief. I wasn’t going to have to come up with all the money for the apartment."
"I was actually able to pay off my debts literally just in time for me to get into a place, and I got the receipt just in time saying that I paid off my debt so that I was able to be accepted into housing."
"It's going to rent, to my car, to be able to afford living. To be able to go to this little program I’m going to for 22 weeks [of job training], to be able to make 50-60k a year. For me, that’s living life. That’s where I need to be. [...] Right now, the way I’m striving, I just feel proud."
If you want to understand more about their study, their methods are available. It answers a lot of the comments below. They do make a distinction and call this "Guaranteed Basic Income" since it targets a subset population: https://static1.squarespace.com/static/64f507a995b636019ef88...
There is, but I don't remember it being noticeable even on cheap TVs, except in high contrast situation where the screen is dim with bright things moving around. I still miss the lack of motion blur that CRTs gave by default.
I found a forum post where someone lists these values:
"Phosphors in current use for CRT-applications:
Red: phosphor = Y2O2S:Eu3+. Lifetime (1/e time) = 150 us, single exponential.
Green: phosphor = Zn2SiO4:Mn2+. Lifetime (1/e time) = 10-15 ms. Clearly, this is quite long and is the limiting factor in increasing frame-frequency.
Note: the emission decay has a highly non-single-exponential decay --> at long times (~1 s) still some emission can be observed by the eye. This can be seen clearly by looking into the green CRT directly after the image was switched off. However, the intensity is too low to cause problems in an active image when the image-frequency is below ~100 Hz.
Blue: phosphor = ZnS:Ag,Cl. Lifetime (1/e time) = ~100-200 us. Note: not single-exponential decay, but no emission at long times.
(Source: Shionoya & Yen, "Phosphor Handbook", 1998.)"
https://www.avsforum.com/threads/what-is-the-rise-and-fall-t...
And in this high framerate video of a CRT you can see the different colors decay at different rates. Here the blue seems to decay the fastest. But they're all imperceptibly dark by the time the scan line comes around again. I have no idea if there's any cumulative effect that's perceptible.
We are, according to the argument, not seeing a just portion of the gains technology brings.
The most difficult government agency proved to be the National Park Service. WMATA had originally planned many station entrances in the city’s downtown parks, like Farragut Square, McPherson Square, and the National Mall.
A planned station at Farragut Square that would have required moving the statue of David Farragut was rejected, resulting in two separate stations – Farragut North and Farragut West – just a few hundred feet apart."
This part is great, answers some questions I've had for a long time. Though there's at least one mystery unanswered: why is the Woodley Park station nearly half a mile from the Zoo?
Rooks and Knights are identical, so their positions fall into [64 choose 2] states + 1 state for when both are captured (only one can occupy the King's location) + 3 states for when both are in the starting position and castling is available for one or the other or both
2020 states = 11 bits * 2 colors * 2 piece types = 44 bits
Bishops only occupy half the board (32 states) + 1 state to track captures 33 states ^ (4 unique pieces) = 21 bits
Queens and Kings just store their location 64 states = 6 bits * 4 pieces = 24 bits
Pawn promotions uses the same method as the article 9 bits x 2 colors = 18 bits
En passant can be stored by the column + 1 state for none 9 states = 4 bits
Pawns can be in, uh, [64 choose 8] position states. (It's only 4 billionish) [64 choose 8] states = 32 bits * 2 colors = 64 bits
And captured pawns can be 'unpromoted' and placed on an empty spot in the top row since unpromoted pawns will never be there.And 1 bit for whose turn it is
1 bit
Total = 176 bits or 22 bytesStarted out thinking about ways to use more of the duplicate pieces, rediscovered the idea of ranking and unranking, started to understand what the person with a limit of 19.2 bytes was doing, tried out just treating position state as [64 choose 32] and only got to 194 bits, then finally worked through this approach.
The bishops are limited to half the board so only need 5 bits for position. This frees up 4 bits, but you lose the capture state (can't use King's position for capture state). Well, you CAN use the king's position for capture state for two of the bishops at any given time. Then for the other two bishops use a bit to store their capture state. This saves 2 bits overall, bringing the total down to exactly 26 bytes.
Gonna have to think that through for awhile, not sure if it works out.
Update: I see a comment below that does this but uses 21 bits (instead of 22) by storing bishop position and capture state as a base-33 number.
Here's the ice cream comparison if anyone's interested: https://www.youtube.com/watch?v=Kr-oq79iur4
I'm hopeful electric cars lead to a return of leg room.