Comments (21)
Exercise: hello-world
Code
module hello_world
implicit none
private
public :: hello
contains
function hello() result(greeting)
character(:), allocatable :: greeting
greeting = "Hello World"
end function hello
end module hello_world
Tags:
construct:allocate
construct:assignment
construct:character
construct:contains
construct:function
construct:implicit-visibility
construct:module
construct:parameterized-type
construct:public
construct:result
construct:string
construct:variable-visibility
paradigm:functional
paradigm:imperative
paradigm:object-oriented
technique:writing-modules
from fortran.
Exercise: hello-world
Code
!! Exercise 'Hello, World!'
!! Return the string 'Hello World'
pure character(len=11) function hello()
implicit none
hello = 'Hello World'
end function hello
Tags:
construct:assignment
construct:character
construct:function
construct:implicit-assignment
construct:implicit-none
construct:parameter
construct:pure-function
construct:return
construct:string
construct:variable-shadowing
construct:visibility
paradigm:functional
paradigm:imperative
paradigm:object-oriented
from fortran.
Exercise: hello-world
Code
program helloworld
print *, 'Hello, World!'
end program helloworld
Tags:
construct:assignment
construct:character
construct:do-loop
construct:end
construct:implicit-assignment
construct:implicit-conversion
construct:input
construct:int
construct:integral-number
construct:print
construct:program
construct:string
construct:variable
construct:visibility
paradigm:imperative
paradigm:looping
from fortran.
Exercise: bob
Code
program Bob
character(100) :: str
character :: chr
logical :: uppercase, shout, question, blank
integer :: length, trimlen, i
read(*,'(A)') str
trimlen = len_trim(str)
uppercase = .FALSE.
question = .FALSE.
shout = .FALSE.
blank = .TRUE.
do i = 1,trimlen
chr = str(i:i)
if (chr >= 'a' .AND. chr <= 'z') then
uppercase = .FALSE.
exit
else if (chr >= 'A' .AND. chr <= 'Z' .OR. chr .EQ. '') then
uppercase = .TRUE.
end if
end do
chr = str(len_trim(str):len_trim(str))
if (uppercase .AND. chr .EQ. '!') then
shout = .TRUE.
end if
if (chr .EQ. '?') then
question = .TRUE.
end if
do i = 1,trimlen
if ( str(i:i) .NE. ' ' ) then
blank = .FALSE.
end if
end do
if (uppercase .OR. shout) then
write(*,*) 'Whoa chill out!'
else if (question) then
write(*,*) 'Sure.'
else if (blank) then
write(*,*) 'Fine. Be that way!'
else
write(*,*) 'Whatever.'
end if
end program Bob
Tags:
construct:assignment
construct:character
construct:do-loop
construct:exit
construct:if-then-else
construct:implicit-loop
construct:logical
construct:read
construct:string
construct:variable
construct:write
paradigm:imperative
paradigm:declarative
from fortran.
Exercise: hamming
Code
program hamming
implicit none
character (100) :: gen1, gen2
integer :: len1, len2, i, hdist
write(*, *) 'Type a DNA strand:'
read (*, '(A)') gen1
len1 = len_trim(gen1)
write(*, *) 'Write another DNA strand of lenght ', len1, ':'
read (*, '(A)') gen2
len2 = len_trim(gen2)
if (len2 .EQ. len1) then
hdist = 0
do i=1,len2
if (gen1(i:i) .NE. gen2(i:i)) then
hdist = hdist + 1
end if
end do
write(*, *) 'Hamming distance of DNA strand 1 and 2 is', hdist
else
write(*, *) 'DNA strands have different length! Not comparable.'
return
end if
end program hamming
Tags:
construct:assignment
construct:character
construct:do-loop
construct:implicit-none
construct:if-then-else
construct:integer
construct:interval
construct:invocation
construct:parameter
construct:program
construct:string
construct:variable
construct:write
paradigm:imperative
paradigm:procedural
technique:looping
from fortran.
Exercise: rna-transcription
Code
program rna_trans
implicit none
integer :: i, len
character(100) :: dna, rna
character :: chr
write(*,*) 'Type an DNA to get the corresponding RNA:'
read(*, '(A)') dna
len=len_trim(dna)
do i=1,len
if (dna(i:i) .EQ. 'G') then
rna(i:i) = 'C'
else if (dna(i:i) .EQ. 'C') then
rna(i:i) = 'G'
else if (dna(i:i) .EQ. 'T') then
rna(i:i) = 'A'
else if (dna(i:i) .EQ. 'A') then
rna(i:i) = 'U'
else
write(*,*) 'Your DNA has some curios nucleotides!'
return
end if
end do
write(*,*) 'RNA Transcription completed!'
write(*,*) 'DNA:', dna
write(*,*) 'RNA:', rna
end program rna_trans
Tags:
construct:assignment
construct:character
construct:do-loop
construct:if-then-else
construct:implicit-none
construct:indexed
construct:integral-number
construct:invocation
construct:parameter
construct:program
construct:read
construct:return
construct:string
construct:variable-visibility
construct:write
paradigm:imperative
paradigm:procedural
from fortran.
Exercise: rna-transcription
Code
module rna_transcription
implicit none
contains
function to_rna(dna)
character(*) :: dna
character(len(dna)) :: to_rna
integer :: i
do i=1,len(dna)
if (dna(i:i) == 'A') then
to_rna(i:i) = 'U'
else if (dna(i:i) == 'C') then
to_rna(i:i) = 'G'
else if (dna(i:i) == 'G') then
to_rna(i:i) = 'C'
else if (dna(i:i) == 'T') then
to_rna(i:i) = 'A'
end if
end do
end function to_rna
end module rna_transcription
Tags:
construct:assignment
construct:character
construct:do-loop
construct:elseif
construct:equality
construct:function
construct:if
construct:implicit-none
construct:module
construct:parameter
construct:string
construct:then
construct:variable-shadowing
paradigm:imperative
paradigm:functional
paradigm:object-oriented
technique:looping
from fortran.
Exercise: rna-transcription
Code
module rna_transcription
implicit none
contains
function to_rna(dna)
character(*) :: dna
character(len(dna)) :: to_rna
integer :: i
do i = 1, len(dna)
select case (dna(i:i))
case ('A')
to_rna(i:i) = 'U'
case ('T')
to_rna(i:i) = 'A'
case ('C')
to_rna(i:i)= 'G'
case ('G')
to_rna(i:i) = 'C'
case default
to_rna = ' '
end select
end do
end function to_rna
end module rna_transcription
Tags:
construct:assignment
construct:character
construct:do-loop
construct:implicit-none
construct:module
construct:parameterized-type
construct:select-case
construct:string
construct:variable-shadowing
paradigm:imperative
paradigm:object-oriented
technique:looping
from fortran.
Exercise: raindrops
Code
program raindrops
implicit none
integer :: i, num, len
logical :: factorial
character (16) :: output
factorial = .FALSE.
output = ''
write(*,*) 'Type a number:'
read(*,*) num
if (mod(num,3) .EQ. 0) then
output= 'Pling'
factorial = .TRUE.
end if
if (mod(num,5) .EQ. 0) then
output= trim(output)//'Plang'
factorial = .TRUE.
end if
if (mod(num,7) .EQ. 0) then
output = trim(output)//'Plong'
factorial = .TRUE.
end if
if (factorial) then
write(*,*) output
else
write(*,*) num
end if
end program raindrops
Tags:
construct:assignment
construct:boolean
construct:character
construct:comment
construct:if-then-else
construct:implicit-none
construct:integer
construct:invocation
construct:logical
construct:number
construct:parameter
construct:program
construct:string
construct:variable-visibility
paradigm:imperative
paradigm:procedural
technique:conditionals
from fortran.
Exercise: raindrops
Code
module raindrops
implicit none
contains
function convert(i)
integer :: i
character(20) :: convert
convert = ''
if (mod(i,3) == 0) then
convert = trim(adjustl(trim(convert)))//'Pling'
end if
if (mod(i,5) == 0) then
convert = trim(adjustl(trim(convert)))//'Plang'
end if
if (mod(i,7) == 0) then
convert = trim(adjustl(trim(convert)))//'Plong'
end if
if ((mod(i,3) /= 0) .and. (mod(i,5) /= 0) .and. (mod(i,7) /= 0)) then
write(convert,*) i
convert = trim(adjustl(trim(convert)))
!adjustl是左对齐,空格放右边,trim是删除右边空格
end if
end function convert
end module raindrops
Tags:
construct:assignment
construct:character
construct:comment
construct:contains
construct:double_slash
construct:equivalence
construct:explicit-conversion
construct:function
construct:if-then-else
construct:implicit-conversion
construct:implicit-none
construct:integer
construct:integral-number
construct:invocation
construct:logical-and
construct:module
construct:number
construct:parameter
construct:string
construct:then
construct:trim
construct:write
paradigm:functional
paradigm:imperative
paradigm:object-oriented
technique:boolean-logic
technique:type-conversion
from fortran.
Exercise: difference-of-squares
Code
program diff_squares
implicit none
integer :: i, num, sum, sqos, sosq, diff
write(*,*) 'Type in a number'
read (*,*) num
do i=1,num
sum=sum+i
sosq=sosq + i**2
end do
sqos = sum**2
diff = sqos - sosq
write(*,*) 'Sum of sqares:', sosq
write(*,*) 'Square of sums:', sqos
write(*,*) 'Difference:', diff
end program diff_squares
Tags:
construct:assignment
construct:do-loop
construct:implicit-none
construct:integer
construct:power
construct:program
construct:read
construct:subtract
construct:variable
construct:write
paradigm:imperative
paradigm:procedural
technique:looping
from fortran.
Exercise: difference-of-squares
Code
module difference_of_squares
implicit none
contains
integer function square_of_sum(n)
integer n, i
square_of_sum = 0
do i=1,n
square_of_sum = square_of_sum + i
end do
square_of_sum = square_of_sum ** 2
end function
integer function sum_of_squares(n)
integer n, i
sum_of_squares = 0
do i=1,n
sum_of_squares = sum_of_squares + i ** 2
end do
end function
integer function difference(n)
integer :: n
difference = square_of_sum(n) - sum_of_squares(n)
end function difference
end module difference_of_squares
Tags:
construct:assignment
construct:contains
construct:do-loop
construct:implicit-none
construct:integer
construct:invocation
construct:module
construct:parameter
construct:return
construct:subtract
construct:variable-shadowing
construct:visibility-modifier
paradigm:imperative
paradigm:object-oriented
technique:looping
from fortran.
Exercise: difference-of-squares
Code
module difference_of_squares
implicit none
contains
integer function square_of_sum(n)
integer :: i, n
integer :: sum
sum = 0
do i = 1,n
sum = i + sum
end do
square_of_sum = sum ** 2
end function square_of_sum
!integer function sum_of_squares(n)
! ! function 有integer, 成员变量就不需要再定义为integer了
! integer :: i, n
! !integer :: sum_of_squares
! sum_of_squares = 0
! do i = 1,n
! sum_of_squares = i ** 2 + sum_of_squares
! end do
!end function sum_of_squares
!换一种写法
integer function sum_of_squares(n) result (sos)
! function 有integer, 成员变量就不需要再定义为integer了
integer :: i, n
sos = 0
! 此时sum_of_squares不再能赋值
!sum_of_squares = 0
do i = 1,n
sos = i ** 2 + sos
end do
end function sum_of_squares
integer function difference(n)
integer :: n
difference = square_of_sum(n) - sum_of_squares(n)
end function difference
end module difference_of_squares
Tags:
construct:add
construct:assignment
construct:comment
construct:do-loop
construct:exponentiation
construct:function
construct:implicit-none
construct:integer
construct:invocation
construct:module
construct:number
construct:parameter
construct:result
construct:subtract
construct:variable
paradigm:functional
paradigm:imperative
paradigm:object-oriented
technique:looping
from fortran.
Exercise: pangram
Code
module pangram
implicit none
contains
logical function is_char(tmp)
character :: tmp
if ((tmp >= "a" .and. tmp<="z" ) .or. (tmp >= "A" .and. tmp<="Z" ) )then
is_char = .true.
else
is_char = .false.
end if
end function is_char
logical function is_pangram(sentance)
character(*) :: sentance
character(52) :: alphabet
character :: tmp
integer :: i, j
integer :: pos_in_sen, pos_in_alp
j = 1
do i = 65, 90
alphabet(j:j) = char(i)
j = j+1
alphabet(j:j) = char(i+32)
j = j+1
end do
!print *, alphabet
pos_in_sen = 1
do while (pos_in_sen <= len(sentance))
tmp = sentance(pos_in_sen:pos_in_sen)
if (is_char(tmp)) then
pos_in_alp = scan(alphabet, tmp)
if (tmp >= "a" .and. tmp<="z" ) then
alphabet(pos_in_alp-1:pos_in_alp) = ''
else if (tmp >= "A" .and. tmp<="Z" ) then
alphabet(pos_in_alp:pos_in_alp+1) = ''
else
end if
pos_in_sen = pos_in_sen + 1
else
pos_in_sen = pos_in_sen + 1
end if
end do
if (alphabet /= '') then
is_pangram = .false.
else
is_pangram = .true.
end if
end function is_pangram
end module pangram
Tags:
construct:add
construct:assignment
construct:char
construct:comment
construct:do-loop
construct:elseif
construct:function
construct:if
construct:implicit-none
construct:integer
construct:interval
construct:invocation
construct:logical
construct:logical-and
construct:logical-or
construct:module
construct:parameter
construct:return
construct:string
construct:subtract
construct:then
construct:variable-assignment
construct:visibility-modifiers
construct:while-loop
paradigm:functional
paradigm:imperative
paradigm:object-oriented
technique:boolean-logic
technique:looping
from fortran.
Exercise: matrix
Code
MODULE matrix
IMPLICIT NONE
CONTAINS
FUNCTION row(m, m_dim, i) RESULT(r)
INTEGER, INTENT(in) :: m_dim(2)
CHARACTER(*), INTENT(in) :: m(m_dim(1))
INTEGER, INTENT(in) :: i
INTEGER, DIMENSION(m_dim(1)) :: r
INTEGER :: A(m_dim(2), m_dim(1))
INTEGER :: j, k, l, n, p, q
CHARACTER(:), ALLOCATABLE :: line
INTEGER, DIMENSION(m_dim(1) - 1) :: stops
DO j = 1, m_dim(2)
line = TRIM(m(j))
q = 1
DO p = 1, m_dim(1) - 1
IF (p == 1) THEN
stops(p) = INDEX(line(q:), ', ')
ELSE
stops(p) = INDEX(line(q:), ', ') + stops(p - 1)
END IF
q = stops(p) + 2
END DO
DO k = 1, m_dim(1)
IF (k == 1) THEN
l = stops(k)
READ (line(1:l), *) A(j, k)
ELSE IF (k == m_dim(1)) THEN
l = stops(k - 1) + 2
READ (line(l:), *) A(j, k)
ELSE
l = stops(k - 1) + 2
n = stops(k)
READ (line(l:n), *) A(j, k)
END IF
END DO
END DO
r(:) = A(i, :)
END FUNCTION row
FUNCTION column(m, m_dim, i) RESULT(c)
INTEGER, INTENT(in) :: m_dim(2)
CHARACTER(*), INTENT(in) :: m(m_dim(1))
INTEGER, INTENT(in) :: i
INTEGER, DIMENSION(m_dim(2)) :: c
INTEGER :: A(m_dim(2), m_dim(1))
INTEGER :: j, k, l, n, p, q, r
CHARACTER(:), ALLOCATABLE :: line
INTEGER, DIMENSION(m_dim(1) - 1) :: stops
DO j = 1, m_dim(2)
line = TRIM(m(j))
q = 1
DO p = 1, m_dim(1) - 1
IF (p == 1) THEN
stops(p) = INDEX(line(q:), ', ')
ELSE
stops(p) = INDEX(line(q:), ', ') + stops(p - 1)
END IF
q = stops(p) + 2
END DO
DO k = 1, m_dim(1)
IF (k == 1) THEN
l = stops(k)
READ (line(1:l), *) A(j, k)
ELSE IF (k == m_dim(1)) THEN
l = stops(k - 1) + 2
READ (line(l:), *) A(j, k)
ELSE
l = stops(k - 1) + 2
n = stops(k)
READ (line(l:n), *) A(j, k)
END IF
END DO
END DO
DO r = 1, m_dim(2)
c(r) = A(r, i)
END DO
END FUNCTION column
END MODULE matrix
Tags:
No tags generated
from fortran.
Exercise: nth-prime
Code
module nth_prime
implicit none
contains
logical function not_divisible(try_number, smaller_primes)
integer :: try_number, smaller_primes(:), i
not_divisible = .true.
do i = 1, size(smaller_primes)
if (mod(try_number, smaller_primes(i)) == 0) then
not_divisible = .false.
return
end if
end do
end function not_divisible
! get nth prime
integer function prime(n)
integer, intent(in) :: n
integer, allocatable :: smaller_primes(:)
integer :: found_primes, i
if (n <= 0) then
prime = -1
return
end if
found_primes = 0
i = 2
allocate(smaller_primes(n))
do while (found_primes < n)
if (not_divisible(i, smaller_primes(1:found_primes))) then
found_primes = found_primes + 1
smaller_primes(found_primes) = i
end if
i = i + 1
end do
prime = smaller_primes(n)
end function
end module
Tags:
construct:add
construct:allocate
construct:assignment
construct:boolean
construct:comment
construct:do-loop
construct:explicit-integer-size
construct:function
construct:if
construct:implicit-loop
construct:implicit-none
construct:indexed
construct:integer
construct:intent
construct:invocation
construct:logical
construct:module
construct:number
construct:parameter
construct:return
construct:subtract
construct:then
construct:variable
construct:visibility
construct:while-loop
paradigm:functional
paradigm:imperative
paradigm:object-oriented
technique:looping
from fortran.
Exercise: high-scores
Code
module high_scores
implicit none
contains
integer function latest(score_list)
integer, dimension(:) :: score_list
integer :: places
places = size(score_list, dim=1)
latest = score_list(places)
end function
function scores(score_list)
integer, dimension(:) :: score_list
integer, allocatable :: scores(:)
allocate(scores(size(score_list, dim=1)))
scores = score_list
end function
integer function personalBest(score_list)
integer, dimension(:) :: score_list
integer :: i
personalBest = score_list(1)
do i = 1, size(score_list, dim=1)
if (score_list(i) > personalBest) then
personalBest = score_list(i)
end if
end do
end function
function personalTopThree(score_list) result(tops)
integer, dimension(:) :: score_list
integer, dimension(3) :: tops
integer :: i
tops = 0
if (size(score_list, dim=1) == 1) then
tops(1) = score_list(1)
return
end if
if (size(score_list, dim=1) == 2) then
if (score_list(1) > score_list(2)) then
tops(1) = score_list(1)
tops(2) = score_list(2)
else
tops(1) = score_list(2)
tops(2) = score_list(1)
end if
return
end if
tops = sortSmallList(score_list(1:3))
do i = 4, size(score_list, dim=1)
if (score_list(i) > tops(1)) then
tops(3) = tops(2)
tops(2) = tops(1)
tops(1) = score_list(i)
else if (score_list(i) > tops(2)) then
tops(3) = tops(2)
tops(2) = score_list(i)
else if (score_list(i) > tops(3)) then
tops(3) = score_list(i)
end if
end do
end function
function sortSmallList(score_list) result(sort)
integer, dimension(3) :: score_list
integer, dimension(3) :: sort
if (score_list(3) >= score_list(2) .AND. score_list(3) >= score_list(1)) then
! Posicao 3 eh o maior de todos
if (score_list(2) > score_list(1)) then
! Posicao 2 eh o segundo maior
sort(1) = score_list(3)
sort(2) = score_list(2)
sort(3) = score_list(1)
else
! Posicao 1 eh o segundo maior
sort(1) = score_list(3)
sort(2) = score_list(1)
sort(3) = score_list(2)
end if
else if (score_list(2) >= score_list(1) .AND. score_list(2) >= score_list(3)) then
! Posicao 2 eh o maior de todos
if (score_list(3) > score_list(1)) then
! Posicao 3 eh o segundo maior
sort(1) = score_list(2)
sort(2) = score_list(3)
sort(3) = score_list(1)
else
! Posicao 1 eh o segundo maior
sort(1) = score_list(2)
sort(2) = score_list(1)
sort(3) = score_list(3)
end if
else
! Posicao 1 eh o maior de todos
if (score_list(3) > score_list(2)) then
! Posicao 3 eh o segundo maior
sort(1) = score_list(1)
sort(2) = score_list(3)
sort(3) = score_list(1)
else
! Posicao 2 eh o segundo maior
sort(1) = score_list(1)
sort(2) = score_list(2)
sort(3) = score_list(3)
end if
end if
end function
end module
Tags:
construct:allocate
construct:assignment
construct:boolean
construct:comment
construct:contains
construct:do-loop
construct:elseif
construct:end-function
construct:end-if
construct:end-module
construct:if-then-else
construct:implicit-assignment
construct:implicit-none
construct:integer
construct:invocation
construct:logical-constant
construct:module
construct:named-argument
construct:return
construct:sort
construct:variable
construct:visibility
paradigm:imperative
paradigm:declarative
paradigm:functional
technique:sorting
uses:sortSmallList
from fortran.
Exercise: perfect-numbers
Code
module perfect_numbers
implicit none
contains
character(len=9) function classify(num)
integer, intent(in) :: num
integer, allocatable :: divs(:)
integer :: total_sum, atempt
if (num <= 0 ) then
classify = "ERROR"
return
end if
total_sum = 0
do atempt = 1, num-1
if (mod(num, atempt) == 0) then
total_sum = total_sum + atempt
end if
end do
if (total_sum == num) then
classify = "perfect "
else if (total_sum > num) then
classify = "abundant "
else
classify = "deficient"
end if
end function
end module
Tags:
construct:allocate
construct:assignment
construct:character
construct:do-loop
construct:elseif
construct:if-then-else
construct:implicit-none
construct:intent
construct:integer
construct:module
construct:parameter
construct:return
construct:string
construct:subtract
construct:variable
paradigm:imperative
paradigm:functional
paradigm:object-oriented
technique:looping
from fortran.
Exercise: isogram
Code
module isogram
implicit none
contains
function isIsogram(phrase) result(no_repeats)
character(len=*), intent(in) :: phrase
logical :: no_repeats
logical :: mark(26)
integer, parameter :: a_code = iachar("a")
integer, parameter :: z_code = iachar("z")
integer, parameter :: offset = (iachar("a") - 1)
integer, parameter :: upper_a_code = iachar("A")
integer, parameter :: upper_z_code = iachar("Z")
integer, parameter :: upper_offset = (iachar("A") - 1)
integer :: idx, code
no_repeats = .true.
if (len(phrase) == 0) then
return
end if
mark = [(.false., idx=1, 26)]
do idx = 1, len(phrase)
code = iachar(phrase(idx:idx))
select case (code)
case (a_code:z_code)
if (mark(code - offset)) then
no_repeats = .false.
return
end if
mark(code - offset) = .true.
case (upper_a_code:upper_z_code)
if (mark(code - upper_offset)) then
no_repeats = .false.
return
end if
mark(code - upper_offset) = .true.
case default
cycle
end select
end do
end function isIsogram
end module isogram
Tags:
construct:assignment
construct:boolean
construct:character
construct:do-loop
construct:if-then-else
construct:implicit-none
construct:indexed-assignment
construct:integer
construct:intrinsics
construct:logical
construct:module
construct:parameter
construct:return
construct:select-case
construct:string
construct:subtract
construct:variable-assignment
construct:visibility-modifiers
paradigm:imperative
paradigm:functional
paradigm:object-oriented
technique:looping
from fortran.
Exercise: isogram
Code
module isogram
implicit none
contains
function isIsogram(phrase) result(no_repeats)
character(len=*), intent(in) :: phrase
logical :: no_repeats
logical, dimension(26) :: has_occured
character :: c
integer :: lt_no
integer :: i
no_repeats = .true.
has_occured = (/(.false., I=1,26 )/)
do i=1,len(phrase)
c = phrase(i:i)
if ((c>='a').and.(c<='z')) then
lt_no = ichar(c) - ichar('a') + 1
no_repeats = (no_repeats.and.(.not.(has_occured(lt_no))))
has_occured(lt_no) = .true.
else if ((c>='A').and.(c<='Z')) then
lt_no = ichar(c) - ichar('A') + 1
no_repeats = (no_repeats.and.(.not.(has_occured(lt_no))))
has_occured(lt_no) = .true.
end if
end do
end function isIsogram
end module isogram
Tags:
construct:assignment
construct:character
construct:do-loop
construct:if-then-else
construct:implicit-none
construct:indexed-assignment
construct:integer
construct:intrinsics
construct:logical
construct:module
construct:parameter
construct:rank
construct:result
construct:subtract
construct:variable-assignment
construct:visibility
paradigm:imperative
paradigm:functional
paradigm:object-oriented
technique:boolean-logic
technique:looping
from fortran.
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Related Issues (20)
- Add language blurb HOT 1
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- Simplify CI/CD HOT 1
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- Extract track-specific help instructions from `config/exercise_readme.go.tmpl`
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- Fix lint issue
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