t3 | key words | Frontend Framework library

You can solve this by next (a bit a complicate) query using window functions:

SQL SUM function return type is mapped to Long for integral-type columns in Java, so you'll probably need to change the list to List and process it then.

See for example https://docs.oracle.com/cd/E19226-01/820-7627/bnbvy/index.html

This solution feels over kill, but it does work.

Use syscall function code 3 to print doubles (not function code 2 — that's for single float).

Use mov.d to copy one register to another, e.g. into $f12 for sycalls (then no need to load 0.0 into $f0).

(Also, use l.d instead of ldc1.)

The loop: loop isn't a loop (there is no backward branch for it).

As @Peter says, your scaling/offsets are not properly accounting for the size of double, which is 8.  Scaling needs to multiply by 8 (shift by 3, not 2), and offsets need to be multiples of 8.

Your first loop, when its done, should not EXIT the program but rather continue with the next statement (i.e. the printing loop).

For this statement numbers[i+2] = numbers[i+1] + numbers[i]; there are two loads and one store as array references, whereas the assembly code is doing 3 loads and no store.

You use $s5, but never put anything in it.

The comparison of numbers[i+1] < 150 has to be done in (double) floating point, whereas the assembly code is attempting this in integer registers.

Floating point comparison is done using c.eq.d, c.lt.d, or c.le.d.  Like with integer compares, constants need to be in registers before the compare instruction.  150.0 would best come directly from memory (as a double constant) before the loop and remain there for the loop duration (or you can move integer 150 into a floating point register and convert that to double (cvt.w.d)).

Conditional branches on floating point compare conditions use either bc1t or bc1f (depending on the sense you want).

The C-like pseudo code probably doesn't run properly.  The exit condition for the first loop is suspect — it will probably run off the end of the array (depending on its initial data values).

Translating non-working C code into assembly is a recipe for frustration.  Suggest getting it working in C first; run it to make sure it works.

Simply add a border on the selected element ?

Create the HttpClient before trying to use it, by using the new keyword.

CloudFormation (CFN) is not going to take your chaklader.pem and create a pair key in AWS. You have to do it before hand yourself. And you can't use CFN for that as it is not supported, unless you will program such a logic yourself using custom resource.

The easiest way is to create or import the key "manually" using AWS Console, SDK or CLI. Then you can reference its name in your template.

Std thread makes a copy (or move) into a decayed version of the arguments type. The decayed version is not a reference nor const nor volatile nor an array (arrays and functions become pointers).

If you want an lvalue reference argument, use a reference wrapper. The called function in the thread ctor gets an rvalue otherwise; decay copy just determines how the rvalue you are passed in the thread function is constructed from your std thread argument.

According to Docs, there is table(DB instance class) which tells which settings can be changed, you can change your instance class for your aurora, as a note An outage occurs during this change.

For redis

according to docs, you can scale down node type of your redis cluster (version 3.2 or newer). During scale down ElastiCache dynamically resizes your cluster while remaining online and serving requests.

In both the cases your data will be preserved.