Closed ErikSchierboom closed 9 months ago
"
" This function takes a year and returns 1 if it's a leap year
" and 0 otherwise.
"
function! IsLeap(year) abort
if a:year % 400 == 0
return 1
elseif a:year % 100 == 0
return 0
elseif a:year % 4 == 0
return 1
endif
endfunction
No tags generated
"
" This function takes two strings which represent strands and returns
" their Hamming distance.
"
" If the lengths of the strands don't match, throw this exception:
"
" 'The two strands must have the same length.'
"
function! Hamming(...)
let [s1, s2] = map(copy(a:000), 'split(v:val,"\\zs")')
if len(s1) != len(s2)
throw 'The two strands must have the same length.'
end
return len(filter(range(len(s1)), 's1[v:val]!=s2[v:val]'))
endfunction
construct:string
construct:assignment
construct:copy
construct:endfunction
construct:if
construct:indexing
construct:invocation
construct:let
construct:list
construct:map
construct:function
construct:parameter
construct:return
construct:string
construct:throw
construct:variable
construct:visibility-modifiers
paradigm:functional
paradigm:imperative
paradigm:reflective
technique:exceptions
technique:higher-order-functions
"
" This function takes a DNA strand and returns its RNA complement.
"
" G -> C
" C -> G
" T -> A
" A -> U
"
" If the input is invalid, return an empty string.
"
" Example:
"
" :echo ToRna('ACGTGGTCTTAA')
" UGCACCAGAAUU
"
let s:rna = {
\ 'G':'C',
\ 'C': 'G',
\ 'T': 'A',
\ 'A': 'U',
\}
function! ToRna(strand) abort
let a:complement = ''
for s:item in split(a:strand, '\zs')
if s:item !~? '[GCTA]'
return ''
endif
let a:complement.=s:rna[s:item]
endfor
return a:complement
endfunction
" echom ToRna('CTA')
construct:assignment
construct:dictionary
construct:for-loop
construct:function
construct:if
construct:index
construct:invocation
construct:let
construct:loop
construct:return
construct:string
construct:variable
paradigm:imperative
paradigm:reflective
technique:looping
uses:Dictionary
"
" Given a word and a list of possible anagrams, select the correct sublist.
"
" Hints:
"
" - Same words don't match.
" - Cases are treated insensitivley.
" - The returned list is sorted.
"
" Example:
"
" :echo Anagram('foo', ['foo', 'bar', 'oof', 'Ofo'])
" ['Ofo', 'oof']
"
function! Anagram(word, candidates) abort
let key = 'join(sort(split(tolower(v:val),"\\zs")),"")'
let cand = sort(copy(a:candidates))
let keys = map(copy(cand), key)
let [tofind] = map([a:word], key)
let ret = []
for i in range(len(cand))
if keys[i] == tofind && tolower(cand[i]) != tolower(a:word)
cal add(ret, cand[i])
end
endfor
return ret
endfunction
construct:boolean
construct:assignment
construct:backslash
construct:boolean
construct:call
construct:copy
construct:double
construct:endif
construct:for-loop
construct:function
construct:if
construct:implicit-conversion
construct:indexing
construct:invocation
construct:lambda
construct:list
construct:logical-and
construct:map
construct:number
construct:parameter
construct:return
construct:string
construct:variable
construct:visibility-modifiers
paradigm:functional
paradigm:imperative
paradigm:object-oriented
technique:boolean-logic
technique:higher-order-functions
technique:looping
uses:List
"
" Find the difference between the square of the sum and the sum of the squares
" of the first N natural numbers.
"
" Examples:
"
" :echo SquareOfSum(3)
" 36
" :echo SumOfSquares(3)
" 14
" :echo Difference(3)
" 22
"
function! Difference(number) abort
return abs(SquareOfSum(a:number) - SumOfSquares(a:number))
endfunction
function! SquareOfSum(n) abort
let ret = 0
for i in range(a:n+1)
let ret += i
endfor
return ret * ret
endfunction
function! SumOfSquares(n) abort
let ret = 0
for i in range(a:n+1)
let ret += i * i
endfor
return ret
endfunction
construct:add
construct:assignment
construct:comment
construct:for-loop
construct:function
construct:function-definition
construct:invocation
construct:let
construct:multiline-string
construct:number
construct:parameter
construct:return
construct:string
construct:subtract
construct:variable
construct:visibility-modifiers
paradigm:imperative
paradigm:functional
paradigm:object-oriented
technique:looping
" Workaround for the fact that `range()` throws an error if it gets a negative
" number. I think it should just return an empty range.
function! Range(n)
return a:n < 0 ? [] : range(a:n)
endfunction
" I can't believe I have to use `eval` for this...
function! Sum(numbers)
return len(a:numbers) == 0 ? 0 : eval(join(a:numbers, ' + '))
endfunction
" Workaround for the fact that `pow()` returns a Float, which makes the tests
" fail because they don't use numerical equality.
function! Squared(n)
return float2nr(pow(a:n, 2))
endfunction
"
" Find the difference between the square of the sum and the sum of the squares
" of the first N natural numbers.
"
" Examples:
"
" :echo SquareOfSum(3)
" 36
" :echo SumOfSquares(3)
" 14
" :echo Difference(3)
" 22
"
function! Difference(number) abort
return SquareOfSum(a:number) - SumOfSquares(a:number)
endfunction
function! SquareOfSum(number) abort
return Squared(Sum(Range(a:number + 1)))
endfunction
function! SumOfSquares(number) abort
return Sum(map(Range(a:number + 1), {i, n -> Squared(n)}))
endfunction
construct:add
construct:boolean
construct:comment
construct:eval
construct:eval-in-vim
construct:expression
construct:float
construct:floating-point-number
construct:function
construct:function-overloading
construct:invocation
construct:lambda
construct:list
construct:map
construct:number
construct:parameter
construct:return
construct:subtract
construct:ternary
construct:using-a-float
construct:variable
construct:visibility-modifiers
paradigm:functional
paradigm:imperative
paradigm:reflective
technique:higher-order-functions
"
" Find the difference between the square of the sum and the sum of the squares
" of the first N natural numbers.
"
" Examples:
"
" :echo SquareOfSum(3)
" 36
" :echo SumOfSquares(3)
" 14
" :echo Difference(3)
" 22
"
function! Difference(number) abort
let squareOfSum = SquareOfSum(a:number)
let sumOfSquares = SumOfSquares(a:number)
return squareOfSum - sumOfSquares
endfunction
function! SquareOfSum(number) abort
let l:sum = s:sum(range(a:number + 1))
return l:sum * l:sum
endfunction
function! SumOfSquares(number) abort
return s:sum(map(range(a:number + 1), {i -> i * i}))
endfunction
function! s:sum(numbers) abort
let l:sum = 0
for n in a:numbers
let l:sum += n
endfor
return l:sum
endfunction
construct:add
construct:assignment
construct:comment
construct:dictionary
construct:for-loop
construct:function
construct:function-invocation
construct:invocation
construct:lambda
construct:let
construct:list
construct:local-variable
construct:map
construct:multiply
construct:number
construct:parameter
construct:return
construct:subtract
construct:variable
paradigm:functional
paradigm:imperative
paradigm:object-oriented
technique:higher-order-functions
technique:looping
"
" Convert a number to a string, the contents of which depend on the number's
" factors.
"
" - If the number has 3 as a factor, output 'Pling'.
" - If the number has 5 as a factor, output 'Plang'.
" - If the number has 7 as a factor, output 'Plong'.
" - If the number does not have 3, 5, or 7 as a factor, just pass
" the number's digits straight through.
"
" Example:
"
" :echo Raindrops(15)
" PlingPlang
"
function! Raindrops(number) abort
let output = ""
if a:number % 3 == 0
let output = output . 'Pling'
endif
if a:number % 5 == 0
let output = output . 'Plang'
endif
if a:number % 7 == 0
let output = output . 'Plong'
endif
if output == ''
return str(a:number)
endif
return output
endfunction
construct:string
construct:assignment
construct:comment
construct:endif
construct:function
construct:if
construct:implicit-conversion
construct:integral-number
construct:invocation
construct:let
construct:number
construct:parameter
construct:return
construct:string-concatenation
construct:variable
construct:visibility-modifiers
paradigm:functional
paradigm:imperative
paradigm:object-oriented
"
" Create an implementation of the atbash cipher, an ancient encryption system
" created in the Middle East.
"
" Plain: abcdefghijklmnopqrstuvwxyz
" Cipher: zyxwvutsrqponmlkjihgfedcba
"
" Examples:
"
" :echo AtbashEncode('test')
" gvhg
"
" :echo AtbashDecode('gvhg')
" test
"
" :echo AtbashDecode('gsvjf rxpyi ldmul cqfnk hlevi gsvoz abwlt')
" thequickbrownfoxjumpsoverthelazydog
function! Cypher_mapping() abort
"create cypher mapping
let l:alphabet = split("abcdefghijklmnopqrstuvwxyz", '\zs')
let l:rvrs_alphabet = reverse(copy(l:alphabet))
let l:comb_alphabet = {}
for l:ind in range(len(l:alphabet))
let l:comb_alphabet[l:alphabet[l:ind]] = l:rvrs_alphabet[l:ind]
endfor
return l:comb_alphabet
endfunction
function! AtbashDecode(cipher) abort
"define mapping
let l:mapping = Cypher_mapping()
"remove spacing between any grouping of letters
let l:nsp_cipher = join(split(a:cipher), "")
"loop through each letter and find the corresponding decoded mapping
let dec_message = []
for l:letter in split(l:nsp_cipher, '\zs')
call add(dec_message, l:mapping[l:letter])
endfor
let l:dec_message = join(l:dec_message, "")
return l:dec_message
endfunction
function! AtbashEncode(plaintext) abort
"define mapping
let l:mapping = Cypher_mapping()
"remove spacing between any grouping of letters
let l:nsp_text = join(split(a:plaintext), "")
"loop through each letter and find the corrsponding cypher mapping
let l:inter_message = []
for l:letter in split(l:nsp_text, '\zs')
call add(l:inter_message, l:mapping[l:letter])
endfor
let l:inter_message = join(l:inter_message, "")
"split encoded message into groupings of 5 ciphered letters
let l:enc_message = ""
for l:letter in range(len(l:inter_message)/5 + 1)
let l:start = l:letter*5
let l:end = l:letter*5 + (5-1)
let l:enc_message = l:enc_message.l:inter_message[l:start : l:end]." "
endfor
return l:enc_message
endfunction
construct:add
construct:assignment
construct:call
construct:dictionary
construct:divide
construct:for-loop
construct:function
construct:implicit-conversion
construct:indexing
construct:invocation
construct:lambda
construct:let
construct:list
construct:loop
construct:multiply
construct:number
construct:parameter
construct:return
construct:string
construct:subtract
construct:variable
construct:visibility-modifiers
paradigm:functional
paradigm:imperative
paradigm:object-oriented
technique:higher-order-functions
technique:looping
func! s:lc_chars(str) abort
return filter(split(tolower(a:str), '\zs'),
\ 'trim(v:val) =~? "\\w"')
endfunc
func! s:chunks(lst, size) abort
let sub_list = []
let res = []
let i = 0
let j = 0
while i < len(a:lst)
for j in range(0, (a:size - 1))
call add(sub_list, get(a:lst, i + j, ''))
endfor
call add(res, sub_list)
let sub_list = []
let i += a:size
endwhile
return res
endfunc
let s:alphabet = map(range(97, 122), 'nr2char(v:val)')
func! AtbashDecode(cipher) abort
let i = 0
let charmap = {}
for ch in reverse(copy(s:alphabet))
let charmap[ch] = s:alphabet[i]
let i += 1
endfor
return trim(join(map(s:lc_chars(a:cipher),
\ 'get(charmap, v:val, v:val)'),
\ ''))
endfunc
func! AtbashEncode(plaintext) abort
let i = 0
let charmap = {}
for ch in s:alphabet
let charmap[ch] = reverse(copy(s:alphabet))[i]
let i += 1
endfor
return trim(
\ join(
\ map(s:chunks(map(s:lc_chars(a:plaintext),
\ 'get(charmap, v:val, v:val)'),
\ 5),
\ 'join(v:val, "")'),
\ ' '))
endfunc
construct:add
construct:assignment
construct:call
construct:dictionary
construct:for-loop
construct:func
construct:function
construct:if
construct:indexing
construct:invocation
construct:lambda
construct:let
construct:list
construct:method
construct:number
construct:parameter
construct:return
construct:string
construct:subtract
construct:variable
construct:visibility-modifiers
construct:while-loop
paradigm:functional
paradigm:imperative
paradigm:object-oriented
technique:higher-order-functions
technique:looping
uses:Dictionary
uses:List
"
" Clean up user-entered phone numbers so that they can be sent SMS messages.
"
" Example:
"
" :echo ToNANP('+1 (613)-995-0253')
" 6139950253
"
" (country code == 1)[1]? (area code)[3] (exchange code)[3] (subscriber number)[4]
function! ToNANP(number) abort
if a:number =~ '\a' || (a:number[0] != '+' && a:number =~ '\V+') || a:number =~ '[^0-9 ().\-+]'
return ''
endif
let number = substitute(a:number, '\D', '', 'g')
if strlen(number) == 10
let ret = number
elseif strlen(number) == 11
if number[0] == '1'
let ret = number[1:]
else
return ''
endif
else
return ''
endif
if ret[0] !~ '[2-9]' || ret[3] !~ '[2-9]'
return ''
else
return ret
endif
endfunction
construct:assignment
construct:boolean
construct:elseif
construct:endif
construct:function
construct:if
construct:indexing
construct:invocation
construct:logical-and
construct:logical-or
construct:number
construct:parameter
construct:return
construct:string
construct:substring
construct:variable
construct:visibility-modifiers
paradigm:imperative
paradigm:functional
paradigm:reflective
technique:boolean-logic
technique:regular-expression
uses:substrings
uses:vim
function! ToNANP(number) abort
let l:number = substitute(a:number, '\v[^0-9]', '', 'g')
if match(l:number, '\v^1?[2-9][0-9]{2}[2-9][0-9]{6}$')
let l:number = ''
endif
return strlen(l:number) ==# 11 ? l:number[1:] : l:number
endfunction
construct:assignment
construct:conditional
construct:function
construct:function-definition
construct:if
construct:implicit-number-conversion
construct:index
construct:invocation
construct:let
construct:number
construct:parameter
construct:return
construct:string
construct:ternary
construct:variable-shadowing
construct:visibility-modifiers
paradigm:functional
paradigm:imperative
paradigm:metaprogramming
paradigm:object-oriented
technique:regular-expression
uses:Vim
"
" Given a DNA string, compute how many times each nucleotide occurs in the
" string.
"
" Examples:
"
" :echo NucleotideCount('ACGTACGT')
" {'A': 2, 'C': 2, 'T': 2, 'G': 2}
"
" :echo NucleotideCount('ACGTXACGT')
" E605: Exception not caught: invalid nucleotide in strand
"
function! NucleotideCount(strand) abort
if a:strand =~ '[^ACGT]'
throw 'invalid nucleotide in strand'
endif
let l:count = {'A': 0, 'C': 0, 'G': 0, 'T': 0}
for i in range(strlen(a:strand))
let l:count[a:strand[i]] += 1
endfor
return l:count
endfunction
construct:assignment
construct:dictionary
construct:endif
construct:for-loop
construct:function
construct:if
construct:indexing
construct:invocation
construct:let
construct:loop
construct:number
construct:parameter
construct:return
construct:string
construct:throw
construct:variable
construct:visibility-modifiers
paradigm:imperative
paradigm:functional
paradigm:object-oriented
technique:exceptions
technique:looping
uses:Dictionary
let s:allergies = {
\ 1: 'eggs', 2: 'peanuts', 4: 'shellfish',
\ 8: 'strawberries', 16: 'tomatoes',
\ 32: 'chocolate', 64: 'pollen', 128: 'cats' }
let s:log2 = { n -> log10(n) / log10(2) }
let s:next_power_of_2 =
\ { n -> float2nr(pow(2, floor(s:log2(n)))) }
func! s:powers_of_2 (n) abort
let pows = []
let step = a:n
while step > 0
let next = s:next_power_of_2(step)
call add(pows, next)
let step -= next
endwhile
return pows
endfunc
func! AllergicTo(score, allergy) abort
for p in s:powers_of_2(a:score)
let found = get(s:allergies, p, v:null)
if found == a:allergy
return 1
endif
endfor
return 0
endfunc
func! List(score) abort
let all = []
for p in s:powers_of_2(a:score)
if has_key(s:allergies, p)
call add(all, get(s:allergies, p))
endif
endfor
return reverse(all)
endfunc
construct:assignment
construct:call
construct:dictionary
construct:divide
construct:float
construct:floating-point-number
construct:for-loop
construct:if
construct:implicit-conversion
construct:index
construct:invocation
construct:lambda
construct:list
construct:number
construct:parameter
construct:return
construct:string
construct:subtract
construct:variable
construct:while-loop
paradigm:functional
paradigm:imperative
paradigm:object-oriented
technique:higher-order-functions
technique:looping
"
" Given a word, return the scrabble score for that word.
"
" Letter Value
" A, E, I, O, U, L, N, R, S, T 1
" D, G 2
" B, C, M, P 3
" F, H, V, W, Y 4
" K 5
" J, X 8
" Q, Z 10
let s:LettersGroups = {
\ "aeioulnrst": 1,
\ "dg": 2,
\ "bcmp": 3,
\ "fhvwy": 4,
\ "k": 5,
\ "jx": 8,
\ "qz": 10,
\ }
function! s:Value(char) abort
let reg = a:char
for letters in keys(s:LettersGroups)
if letters =~ reg
return s:LettersGroups[letters]
endif
endfor
endfunction
function! Score(word) abort
let count = 0
let chars = split(tolower(a:word), '\zs')
for char in chars
let val = s:Value(char)
let count += val
endfor
return count
endfunction
construct:assignment
construct:char
construct:dictionary
construct:for-loop
construct:function
construct:if
construct:indexing
construct:invocation
construct:let
construct:method
construct:number
construct:parameter
construct:return
construct:string
construct:variable
construct:visibility-modifiers
paradigm:imperative
paradigm:functional
paradigm:object-oriented
technique:looping
uses:Dictionary
let s:scoreletters = {
\ 1: 'AEILNORSTU',
\ 2: 'DG',
\ 3: 'BCMP',
\ 4: 'FHVWY',
\ 5: 'K',
\ 8: 'JX',
\ 10: 'QZ',
\ }
let s:letterscores = map(range(26), 0)
for s:score in keys(s:scoreletters)
for s:letter in split(s:scoreletters[s:score], '\zs')
let s:letterscores[char2nr(s:letter) - s:a_char] = s:score
endfor
endfor
function! Score(word) abort
let l:a_char = char2nr('A')
let l:total = 0
for l:item in split(a:word->toupper(), '\zs')
let l:total = l:total + s:letterscores[char2nr(l:item) - l:a_char]
endfor
return l:total
endfunction
construct:add
construct:assignment
construct:char
construct:dictionary
construct:for-loop
construct:function
construct:implicit-conversion
construct:indexing
construct:invocation
construct:lambda
construct:let
construct:map
construct:number
construct:parameter
construct:return
construct:string
construct:subtract
construct:variable
construct:visibility-modifiers
paradigm:functional
paradigm:imperative
paradigm:object-oriented
technique:higher-order-functions
technique:looping
function! Equilateral(triangle) abort
return CheckInequality(a:triangle) && len(uniq(sort(a:triangle))) == 1
endfunction
function! Isosceles(triangle) abort
return CheckInequality(a:triangle) && len(uniq(sort(a:triangle))) <= 2
endfunction
function! Scalene(triangle) abort
return CheckInequality(a:triangle) && a:triangle[0] != a:triangle[1]
endfunction
function! CheckInequality(triangle) abort
return count(a:triangle, 0) == 0
\ && a:triangle[0] + a:triangle[1] >= a:triangle[2]
\ && a:triangle[0] + a:triangle[2] >= a:triangle[1]
\ && a:triangle[1] + a:triangle[2] >= a:triangle[0]
endfunction
construct:add
construct:boolean
construct:function
construct:functional
construct:invocation
construct:logical-and
construct:number
construct:parameter
construct:return
construct:string
construct:variable
paradigm:functional
paradigm:imperative
paradigm:reflective
technique:boolean-logic
func! Transform(scores) abort
let new_map = {}
for pt in keys(a:scores)
for ch in a:scores[pt]
let new_map[tolower(ch)] = str2nr(pt)
endfor
endfor
return new_map
endfunc
construct:assignment
construct:dictionary
construct:endfor
construct:for
construct:function
construct:function-definitions
construct:implicit-conversion
construct:indexing
construct:invocation
construct:let
construct:loop
construct:lowercase
construct:parameter
construct:return
construct:string
construct:throw
construct:variable
construct:visibility-modifiers
paradigm:imperative
paradigm:functional
paradigm:reflective
technique:exceptions
technique:looping
"
" Determine if a sentence is a pangram.
"
" A pangram is a sentence using every letter of the alphabet at least once.
"
" The alphabet used consists of ASCII letters a to z, inclusive, and is case
" insensitive. Input will not contain non-ASCII symbols.
"
" Example:
"
" :echo IsPangram('The quick brown fox jumps over the lazy dog')
" 1
" :echo IsPangram('The quick brown fox jumps over the lazy do')
" 0
"
function! IsPangram(sentence) abort
const l:false = 0
const l:true = 1
let l:set = {}
for l:character in a:sentence->tolower()
let l:set[l:character] = v:null
endfor
for l:character in 'abcdefghijklmnopqrstuvwxyz'
if !l:set->has_key(l:character)
return l:false
endif
endfor
return l:true
endfunction
construct:boolean
construct:const
construct:for-loop
construct:function
construct:if
construct:indexing
construct:invocation
construct:let
construct:looping
construct:number
construct:parameter
construct:return
construct:string
construct:variable
construct:visibility-modifiers
paradigm:functional
paradigm:imperative
paradigm:looping
paradigm:object-oriented
technique:looping
"
" Determine if a sentence is a pangram.
"
" A pangram is a sentence using every letter of the alphabet at least once.
"
" The alphabet used consists of ASCII letters a to z, inclusive, and is case
" insensitive. Input will not contain non-ASCII symbols.
"
" Example:
"
" :echo IsPangram('The quick brown fox jumps over the lazy dog')
" 1
" :echo IsPangram('The quick brown fox jumps over the lazy do')
" 0
"
function! IsPangram(sentence) abort
let map = {}
for letter in tolower(a:sentence)
if (letter <= 'z' && letter >= 'a')
let map[letter] = get(map,letter,0)+1
endif
endfor
return len(map) == 26
endfunction
construct:add
construct:assignment
construct:boolean
construct:dictionary
construct:endif
construct:for-loop
construct:function
construct:if
construct:implicit-conversion
construct:indexing
construct:invocation
construct:let
construct:number
construct:parameter
construct:return
construct:string
construct:variable
construct:visibility-modifiers
paradigm:functional
paradigm:imperative
paradigm:object-oriented
technique:looping
uses:Dictionary
This is an automated comment
Hello :wave: Next week we're going to start using the tagging work people are doing on these. If you've already completed the work, thank you! If you've not, but intend to this week, that's great! If you're not going to get round to doing it, and you've not yet posted a comment letting us know, could you please do so, so that we can find other people to do it. Thanks!
Hello lovely maintainers :wave:
We've recently added "tags" to student's solutions. These express the constructs, paradigms and techniques that a solution uses. We are going to be using these tags for lots of things including filtering, pointing a student to alternative approaches, and much more.
In order to do this, we've built out a full AST-based tagger in C#, which has allowed us to do things like detect recursion or bit shifting. We've set things up so other tracks can do the same for their languages, but its a lot of work, and we've determined that actually it may be unnecessary. Instead we think that we can use machine learning to achieve tagging with good enough results. We've fine-tuned a model that can determine the correct tags for C# from the examples with a high success rate. It's also doing reasonably well in an untrained state for other languages. We think that with only a few examples per language, we can potentially get some quite good results, and that we can then refine things further as we go.
I released a new video on the Insiders page that talks through this in more detail.
We're going to be adding a fully-fledged UI in the coming weeks that allow maintainers and mentors to tag solutions and create training sets for the neural networks, but to start with, we're hoping you would be willing to manually tag 20 solutions for this track. In this post we'll add 20 comments, each with a student's solution, and the tags our model has generated. Your mission (should you choose to accept it) is to edit the tags on each issue, removing any incorrect ones, and add any that are missing. In order to build one model that performs well across languages, it's best if you stick as closely as possible to the C# tags as you can. Those are listed here. If you want to add extra tags, that's totally fine, but please don't arbitrarily reword existing tags, even if you don't like what Erik's chosen, as it'll just make it less likely that your language gets the correct tags assigned by the neural network.
To summarise - there are two paths forward for this issue:
If you tell us you're not able/wanting to help or there's no comment added, we'll automatically crowd-source this in a week or so.
Finally, if you have questions or want to discuss things, it would be best done on the forum, so the knowledge can be shared across all maintainers in all tracks.
Thanks for your help! :blue_heart:
Note: Meta discussion on the forum