Find prime numbers of the form n*n*n+2

From Rosetta Code
Find prime numbers of the form n*n*n+2 is a draft programming task. It is not yet considered ready to be promoted as a complete task, for reasons that should be found in its talk page.
Task
Find prime numbers of the form   n3+2,   where 0 < n < 200



11l

Translation of: Python
F isPrime(n)
   L(i) 2 .. Int(n ^ 0.5)
      I n % i == 0
         R 0B
   R 1B

L(n) 1..199
   I isPrime(n ^ 3 + 2)
      print(n"\t"(n ^ 3 + 2))
Output:
1	3
3	29
5	127
29	24391
45	91127
63	250049
65	274627
69	328511
71	357913
83	571789
105	1157627
113	1442899
123	1860869
129	2146691
143	2924209
153	3581579
171	5000213
173	5177719
189	6751271

Ada

with Ada.Text_Io;

procedure Find_Primes is

   type Number is new Long_Integer range 0 .. Long_Integer'Last;
   package Number_Io is new Ada.Text_Io.Integer_Io (Number);

   function Is_Prime (A : Number) return Boolean is
      D : Number;
   begin
      if A < 2       then return False; end if;
      if A in 2 .. 3 then return True;  end if;
      if A mod 2 = 0 then return False; end if;
      if A mod 3 = 0 then return False; end if;
      D := 5;
      while D * D <= A loop
         if A mod D = 0 then
            return False;
         end if;
         D := D + 2;
         if A mod D = 0 then
            return False;
         end if;
         D := D + 4;
      end loop;
      return True;
   end Is_Prime;

   P : Number;
begin
   Ada.Text_Io.Put_Line ("  N   N**3+2");
   Ada.Text_Io.Put_Line ("------------");
   for N in Number range 1 .. 199 loop
      P := N**3 + 2;
      if Is_Prime (P) then
         Number_Io.Put (N, Width => 3); Ada.Text_Io.Put ("  ");
         Number_Io.Put (P, Width => 7);
         Ada.Text_Io.New_Line;
      end if;
   end loop;
end Find_Primes;
Output:
  N   N**3+2
------------
  1        3
  3       29
  5      127
 29    24391
 45    91127
 63   250049
 65   274627
 69   328511
 71   357913
 83   571789
105  1157627
113  1442899
123  1860869
129  2146691
143  2924209
153  3581579
171  5000213
173  5177719
189  6751271

ALGOL 68

BEGIN # Find n such that n^3 + 2 is a prime for n < 200                      #
    FOR n TO 199 DO
        INT candidate = ( n * n * n ) + 2;
        # there will only be 199 candidates, so a primality check by trial   #
        # division should be OK                                              #
        BOOL is prime := TRUE;
        FOR f FROM 2 TO ENTIER sqrt( candidate )
        WHILE is prime := candidate MOD f /= 0
        DO SKIP OD; 
        IF is prime THEN
            # n^3 + 2 is prime                                               #
            print( ( whole( n, -4 ), ": ", whole( candidate, -8 ), newline ) )
        FI
    OD
END
Output:
   1:        3
   3:       29
   5:      127
  29:    24391
  45:    91127
  63:   250049
  65:   274627
  69:   328511
  71:   357913
  83:   571789
 105:  1157627
 113:  1442899
 123:  1860869
 129:  2146691
 143:  2924209
 153:  3581579
 171:  5000213
 173:  5177719
 189:  6751271

ALGOL W

begin % Find n such that n^3 + 2 is a prime for n < 200                      %
    for n := 1 until 199 do begin
        integer candidate;
        logical isPrime;
        candidate := ( n * n * n ) + 2;
        % there will only be 199 candidates, so a primality check by trial   %
        % division should be OK                                              %
        isPrime := true;
        for f := 2 until entier( sqrt( candidate ) ) do begin
            isPrime := candidate rem f  not = 0;
            if not isPrime then goto endPrimalityCheck
        end for_f ;
endPrimalityCheck:
        if isPrime then begin
            % n^3 + 2 is prime                                               %
            write( i_w := 4, s_w := 0, n, ": ", i_w := 8, candidate )
        end if_isPrime
    end for_n
end.
Output:
   1:        3
   3:       29
   5:      127
  29:    24391
  45:    91127
  63:   250049
  65:   274627
  69:   328511
  71:   357913
  83:   571789
 105:  1157627
 113:  1442899
 123:  1860869
 129:  2146691
 143:  2924209
 153:  3581579
 171:  5000213
 173:  5177719
 189:  6751271

Arturo

primes: []
loop 1..199 'i [
    num: 2 + i^3
    if prime? num ->
        'primes ++ @[to :string i, to :string num]
]

loop primes [i, num][
    prints pad i 4
    print pad num 9
]
Output:
   1        3
   3       29
   5      127
  29    24391
  45    91127
  63   250049
  65   274627
  69   328511
  71   357913
  83   571789
 105  1157627
 113  1442899
 123  1860869
 129  2146691
 143  2924209
 153  3581579
 171  5000213
 173  5177719
 189  6751271

AWK

# syntax: GAWK -f FIND_PRIME_NUMBERS_OF_THE_FORM_NNN2.AWK
BEGIN {
    start = 1
    stop = 200
    for (n=start; n<=stop; n++) {
      p = n*n*n + 2
      if (is_prime(p)) {
        printf("%3d %'10d\n",n,p)
        count++
      }
    }
    printf("Prime numbers %d-%d of the form n*n*n+2: %d\n",start,stop,count)
    exit(0)
}
function is_prime(x,  i) {
    if (x <= 1) {
      return(0)
    }
    for (i=2; i<=int(sqrt(x)); i++) {
      if (x % i == 0) {
        return(0)
      }
    }
    return(1)
}
Output:
  1          3
  3         29
  5        127
 29     24,391
 45     91,127
 63    250,049
 65    274,627
 69    328,511
 71    357,913
 83    571,789
105  1,157,627
113  1,442,899
123  1,860,869
129  2,146,691
143  2,924,209
153  3,581,579
171  5,000,213
173  5,177,719
189  6,751,271
Prime numbers 1-200 of the form n*n*n+2: 19

C

Translation of: Wren
#include <stdio.h>
#include <stdbool.h>
#include <locale.h>

bool isPrime(int n) {
    int d;
    if (n < 2)  return false;
    if (!(n%2)) return n == 2;
    if (!(n%3)) return n == 3;
    d = 5;
    while (d*d <= n) {
        if (!(n%d)) return false;
        d += 2;
        if (!(n%d)) return false;
        d += 4;
    }
    return true;
}

int main() {
    int n, p;
    const int limit = 200;
    setlocale(LC_ALL, "");
    for (n = 1; n < limit; ++n) {
        p = n*n*n + 2;
        if (isPrime(p)) {
            printf("n = %3d => n³ + 2 = %'9d\n", n, p);
        }
    }
    return 0;
}
Output:
n =   1 => n³ + 2 =         3
n =   3 => n³ + 2 =        29
n =   5 => n³ + 2 =       127
n =  29 => n³ + 2 =    24,391
n =  45 => n³ + 2 =    91,127
n =  63 => n³ + 2 =   250,049
n =  65 => n³ + 2 =   274,627
n =  69 => n³ + 2 =   328,511
n =  71 => n³ + 2 =   357,913
n =  83 => n³ + 2 =   571,789
n = 105 => n³ + 2 = 1,157,627
n = 113 => n³ + 2 = 1,442,899
n = 123 => n³ + 2 = 1,860,869
n = 129 => n³ + 2 = 2,146,691
n = 143 => n³ + 2 = 2,924,209
n = 153 => n³ + 2 = 3,581,579
n = 171 => n³ + 2 = 5,000,213
n = 173 => n³ + 2 = 5,177,719
n = 189 => n³ + 2 = 6,751,271

C++

#include <iomanip>
#include <iostream>

bool is_prime(unsigned int n) {
    if (n < 2)
        return false;
    if (n % 2 == 0)
        return n == 2;
    if (n % 3 == 0)
        return n == 3;
    for (unsigned int p = 5; p * p <= n; p += 4) {
        if (n % p == 0)
            return false;
        p += 2;
        if (n % p == 0)
            return false;
    }
    return true;
}

int main() {
    for (unsigned int n = 1; n < 200; n += 2) {
        auto p = n * n * n + 2;
        if (is_prime(p))
            std::cout << std::setw(3) << n << std::setw(9) << p << '\n';
    }
}
Output:
  1        3
  3       29
  5      127
 29    24391
 45    91127
 63   250049
 65   274627
 69   328511
 71   357913
 83   571789
105  1157627
113  1442899
123  1860869
129  2146691
143  2924209
153  3581579
171  5000213
173  5177719
189  6751271

CLU

is_prime = proc (n: int) returns (bool)
    if n<2 then return(false) end
    if n//2=0 then return(n=2) end
    if n//3=0 then return(n=3) end
    
    d: int := 5
    while d*d <= n do
        if n//d=0 then return(false) end
        d := d+2
        if n//d=0 then return(false) end
        d := d+4
    end
    return(true)
end is_prime

n3plus2_primes = iter (max: int) yields (int,int)
    for n: int in int$from_to(1, max) do
        p: int := n**3 + 2
        if is_prime(p) then yield(n,p) end
    end
end n3plus2_primes

start_up = proc ()
    po: stream := stream$primary_output()
    for n, p: int in n3plus2_primes(200) do
        stream$puts(po, "n = ")
        stream$putright(po, int$unparse(n), 3)
        stream$puts(po, " => n^3 + 2 = ")
        stream$putright(po, int$unparse(p), 7)
        stream$putl(po, "")
    end
end start_up
Output:
n =   1 => n^3 + 2 =       3
n =   3 => n^3 + 2 =      29
n =   5 => n^3 + 2 =     127
n =  29 => n^3 + 2 =   24391
n =  45 => n^3 + 2 =   91127
n =  63 => n^3 + 2 =  250049
n =  65 => n^3 + 2 =  274627
n =  69 => n^3 + 2 =  328511
n =  71 => n^3 + 2 =  357913
n =  83 => n^3 + 2 =  571789
n = 105 => n^3 + 2 = 1157627
n = 113 => n^3 + 2 = 1442899
n = 123 => n^3 + 2 = 1860869
n = 129 => n^3 + 2 = 2146691
n = 143 => n^3 + 2 = 2924209
n = 153 => n^3 + 2 = 3581579
n = 171 => n^3 + 2 = 5000213
n = 173 => n^3 + 2 = 5177719
n = 189 => n^3 + 2 = 6751271

COBOL

       IDENTIFICATION DIVISION.
       PROGRAM-ID. N3-PLUS-2-PRIMES.
       
       DATA DIVISION.
       WORKING-STORAGE SECTION.
       01 VARIABLES.
          03 N                  PIC 9(3).
          03 N3PLUS2            PIC 9(7).
          03 DIVISOR            PIC 9(4).
          03 DIV-SQ             PIC 9(8).
          03 DIV-CHECK          PIC 9(4)V9(4).
          03 FILLER             REDEFINES DIV-CHECK.
             05 FILLER          PIC 9(4).
             05 FILLER          PIC 9(4).
                88 DIVISIBLE    VALUE ZERO.
          03 FILLER             REDEFINES N3PLUS2.
             05 FILLER          PIC 9(6).
             05 FILLER          PIC 9.
                88 EVEN         VALUE 0, 2, 4, 6, 8.
          03 PRIME-FLAG         PIC X.
             88 PRIME           VALUE '*'.
          
       01 FORMAT.
          03 FILLER             PIC X(4)  VALUE "N = ".
          03 N-OUT              PIC ZZ9.
          03 FILLER             PIC X(17) VALUE " => N ** 3 + 2 = ".
          03 N3PLUS2-OUT        PIC Z(6)9.
          
       PROCEDURE DIVISION.
       BEGIN.
           PERFORM TRY-N VARYING N FROM 1 BY 1
           UNTIL N IS GREATER THAN 200.
           STOP RUN.
       
       TRY-N.
           COMPUTE N3PLUS2 = N ** 3 + 2.
           PERFORM CHECK-PRIME.
           IF PRIME,
               MOVE N TO N-OUT,
               MOVE N3PLUS2 TO N3PLUS2-OUT,
               DISPLAY FORMAT.
        
       CHECK-PRIME SECTION.
       BEGIN.
           MOVE SPACE TO PRIME-FLAG.
           IF N3PLUS2 IS LESS THAN 5, GO TO TRIVIAL.
           IF EVEN, GO TO CHECK-PRIME-DONE.
           DIVIDE N3PLUS2 BY 3 GIVING DIV-CHECK.
           IF DIVISIBLE, GO TO CHECK-PRIME-DONE.
           MOVE ZERO TO DIV-SQ.
           MOVE 5 TO DIVISOR. 
           MOVE '*' TO PRIME-FLAG.
           PERFORM CHECK-DIVISOR 
               UNTIL NOT PRIME OR DIV-SQ IS GREATER THAN N3PLUS2.
           GO TO CHECK-PRIME-DONE.
       
       CHECK-DIVISOR.
           MULTIPLY DIVISOR BY DIVISOR GIVING DIV-SQ.
           DIVIDE N3PLUS2 BY DIVISOR GIVING DIV-CHECK.
           IF DIVISIBLE, MOVE SPACE TO PRIME-FLAG.
           ADD 2 TO DIVISOR.
           DIVIDE N3PLUS2 BY DIVISOR GIVING DIV-CHECK.
           IF DIVISIBLE, MOVE SPACE TO PRIME-FLAG.
           ADD 4 TO DIVISOR.
           
       TRIVIAL.
           IF N3PLUS2 IS EQUAL TO 2 OR EQUAL TO 3,
               MOVE '*' TO PRIME-FLAG.
       
       CHECK-PRIME-DONE.
           EXIT.
Output:
N =   1 => N ** 3 + 2 =       3
N =   3 => N ** 3 + 2 =      29
N =   5 => N ** 3 + 2 =     127
N =  29 => N ** 3 + 2 =   24391
N =  45 => N ** 3 + 2 =   91127
N =  63 => N ** 3 + 2 =  250049
N =  65 => N ** 3 + 2 =  274627
N =  69 => N ** 3 + 2 =  328511
N =  71 => N ** 3 + 2 =  357913
N =  83 => N ** 3 + 2 =  571789
N = 105 => N ** 3 + 2 = 1157627
N = 113 => N ** 3 + 2 = 1442899
N = 123 => N ** 3 + 2 = 1860869
N = 129 => N ** 3 + 2 = 2146691
N = 143 => N ** 3 + 2 = 2924209
N = 153 => N ** 3 + 2 = 3581579
N = 171 => N ** 3 + 2 = 5000213
N = 173 => N ** 3 + 2 = 5177719
N = 189 => N ** 3 + 2 = 6751271

Cowgol

include "cowgol.coh";

sub is_prime(n: uint32): (p: uint8) is
    p := 0;
    if n<=4 then 
        if n==2 or n==3 then
            p := 1;
        end if;
        return;
    end if;
    if n&1 == 0 or n%3 == 0 then
        return;
    end if;
    
    var d: uint32 := 5;
    while d*d <= n loop
        if n%d==0 then return; end if;
        d := d+2;
        if n%d==0 then return; end if;
        d := d+4;
    end loop;
    p := 1;
end sub;

var n: uint32 := 1;
while n < 200 loop
    var p: uint32 := n*n*n + 2;
    if is_prime(p) != 0 then
        print("n = ");
        print_i32(n);
        print("\t=> n^3 + 2 = ");
        print_i32(p);
        print_nl();
    end if;
    n := n+1;
end loop;
Output:
n =   1 => n^3 + 2 =       3
n =   3 => n^3 + 2 =      29
n =   5 => n^3 + 2 =     127
n =  29 => n^3 + 2 =   24391
n =  45 => n^3 + 2 =   91127
n =  63 => n^3 + 2 =  250049
n =  65 => n^3 + 2 =  274627
n =  69 => n^3 + 2 =  328511
n =  71 => n^3 + 2 =  357913
n =  83 => n^3 + 2 =  571789
n = 105 => n^3 + 2 = 1157627
n = 113 => n^3 + 2 = 1442899
n = 123 => n^3 + 2 = 1860869
n = 129 => n^3 + 2 = 2146691
n = 143 => n^3 + 2 = 2924209
n = 153 => n^3 + 2 = 3581579
n = 171 => n^3 + 2 = 5000213
n = 173 => n^3 + 2 = 5177719
n = 189 => n^3 + 2 = 6751271

Delphi

Library: PrimTrial
program Find_prime_numbers_of_the_form_n_n_n_plus_2;

{$APPTYPE CONSOLE}

uses
  System.SysUtils,
  PrimTrial;

function Commatize(n: NativeInt): string;
var
  fmt: TFormatSettings;
begin
  fmt := TFormatSettings.Create('en-Us');
  Result := double(n).ToString(ffNumber, 64, 0, fmt);
end;

const
  limit = 200;

begin
  for var n := 1 to limit - 1 do
  begin
    var p := n * n * n + 2;
    if isPrime(p) then
      writeln('n = ', n: 3, ' => n^3 + 2 = ', Commatize(p): 9);
  end;
  readln;
end.
Output:
n =   1 => n^3 + 2 =         3
n =   3 => n^3 + 2 =        29
n =   5 => n^3 + 2 =       127
n =  29 => n^3 + 2 =    24,391
n =  45 => n^3 + 2 =    91,127
n =  63 => n^3 + 2 =   250,049
n =  65 => n^3 + 2 =   274,627
n =  69 => n^3 + 2 =   328,511
n =  71 => n^3 + 2 =   357,913
n =  83 => n^3 + 2 =   571,789
n = 105 => n^3 + 2 = 1,157,627
n = 113 => n^3 + 2 = 1,442,899
n = 123 => n^3 + 2 = 1,860,869
n = 129 => n^3 + 2 = 2,146,691
n = 143 => n^3 + 2 = 2,924,209
n = 153 => n^3 + 2 = 3,581,579
n = 171 => n^3 + 2 = 5,000,213
n = 173 => n^3 + 2 = 5,177,719
n = 189 => n^3 + 2 = 6,751,271

Draco

proc nonrec is_prime(ulong n) bool:
    ulong d;   
    bool prime;
    if n<=4 then n=2 or n=3
    elif n&1=0 or n%3=0 then false
    else
        d := 5;
        prime := true;
        while prime and d*d <= n do
            if n%d=0 then prime := false fi;
            d := d+2;
            if n%d=0 then prime := false fi;
            d := d+4
        od;
        prime
    fi
corp

proc nonrec main() void:
    word n;
    ulong p;
    for n from 1 upto 200 do
        p := make(n,ulong);
        p := p*p*p + 2;
        if is_prime(p) then
            writeln("n = ", n:3, " => n^3 + 2 = ", p:7)
        fi
    od
corp
Output:
n =   1 => n^3 + 2 =       3
n =   3 => n^3 + 2 =      29
n =   5 => n^3 + 2 =     127
n =  29 => n^3 + 2 =   24391
n =  45 => n^3 + 2 =   91127
n =  63 => n^3 + 2 =  250049
n =  65 => n^3 + 2 =  274627
n =  69 => n^3 + 2 =  328511
n =  71 => n^3 + 2 =  357913
n =  83 => n^3 + 2 =  571789
n = 105 => n^3 + 2 = 1157627
n = 113 => n^3 + 2 = 1442899
n = 123 => n^3 + 2 = 1860869
n = 129 => n^3 + 2 = 2146691
n = 143 => n^3 + 2 = 2924209
n = 153 => n^3 + 2 = 3581579
n = 171 => n^3 + 2 = 5000213
n = 173 => n^3 + 2 = 5177719
n = 189 => n^3 + 2 = 6751271

F#

This task uses Extensible Prime Generator (F#).

[1..2..200]|>Seq.filter(fun n->isPrime(2+pown n 3))|>Seq.iter(fun n->printfn "n=%3d -> %d" n (2+pown n 3))
Output:
n=  1 -> 3
n=  3 -> 29
n=  5 -> 127
n= 29 -> 24391
n= 45 -> 91127
n= 63 -> 250049
n= 65 -> 274627
n= 69 -> 328511
n= 71 -> 357913
n= 83 -> 571789
n=105 -> 1157627
n=113 -> 1442899
n=123 -> 1860869
n=129 -> 2146691
n=143 -> 2924209
n=153 -> 3581579
n=171 -> 5000213
n=173 -> 5177719
n=189 -> 6751271

Factor

Using the parity optimization from the Wren entry:

Works with: Factor version 0.99 2021-02-05
USING: formatting kernel math math.functions math.primes
math.ranges sequences tools.memory.private ;

1 199 2 <range> [
    dup 3 ^ 2 + dup prime?
    [ commas "n = %3d => n³ + 2 = %9s\n" printf ] [ 2drop ] if
] each

Or, using local variables:

Translation of: Wren
Works with: Factor version 0.99 2021-02-05
USING: formatting kernel math math.primes math.ranges sequences
tools.memory.private ;

[let
    199 :> limit
    1 limit 2 <range> [| n |
        n n n * * 2 + :> p
        p prime?
        [ n p commas "n = %3d => n³ + 2 = %9s\n" printf ] when
    ] each
]
Output:
n =   1 => n³ + 2 =         3
n =   3 => n³ + 2 =        29
n =   5 => n³ + 2 =       127
n =  29 => n³ + 2 =    24,391
n =  45 => n³ + 2 =    91,127
n =  63 => n³ + 2 =   250,049
n =  65 => n³ + 2 =   274,627
n =  69 => n³ + 2 =   328,511
n =  71 => n³ + 2 =   357,913
n =  83 => n³ + 2 =   571,789
n = 105 => n³ + 2 = 1,157,627
n = 113 => n³ + 2 = 1,442,899
n = 123 => n³ + 2 = 1,860,869
n = 129 => n³ + 2 = 2,146,691
n = 143 => n³ + 2 = 2,924,209
n = 153 => n³ + 2 = 3,581,579
n = 171 => n³ + 2 = 5,000,213
n = 173 => n³ + 2 = 5,177,719
n = 189 => n³ + 2 = 6,751,271

Fermat

for n=1,199 do if Isprime(n^3+2)=1 then !!(n,n^3+2) fi od
Output:
 1 3
 3 29
 5 127
 29 24391
 45 91127
 63 250049
 65 274627
 69 328511
 71 357913
 83 571789
 105 1157627
 113 1442899
 123 1860869
 129 2146691
 143 2924209
 153 3581579
 171 5000213
 173 5177719
 189 6751271

Forth

Works with: Gforth
: prime? ( n -- flag )
  dup 2 < if drop false exit then
  dup 2 mod 0= if 2 = exit then
  dup 3 mod 0= if 3 = exit then
  5
  begin
    2dup dup * >=
  while
    2dup mod 0= if 2drop false exit then
    2 +
    2dup mod 0= if 2drop false exit then
    4 +
  repeat
  2drop true ;

: main
  200 1 do
    i i i * * 2 + dup prime? if
      i 3 .r 9 .r cr
    else
      drop
    then
  2 +loop ;

main
bye
Output:
  1        3
  3       29
  5      127
 29    24391
 45    91127
 63   250049
 65   274627
 69   328511
 71   357913
 83   571789
105  1157627
113  1442899
123  1860869
129  2146691
143  2924209
153  3581579
171  5000213
173  5177719
189  6751271

FreeBASIC

Use the code from Primality by trial division#FreeBASIC as an include.

#include"isprime.bas"

for n as uinteger = 1 to 200
    if isprime(n^3+2) then
        print n, n^3+2
    end if
next n
Output:
1              3
3              29
5              127
29             24391
45             91127
63             250049
65             274627
69             328511
71             357913
83             571789
105            1157627
113            1442899
123            1860869
129            2146691
143            2924209
153            3581579
171            5000213
173            5177719
189            6751271

Frink

for n = 1 to 199
   if isPrime[n^3 + 2]
      println["$n\t" + n^3+2]
Output:
1	3
3	29
5	127
29	24391
45	91127
63	250049
65	274627
69	328511
71	357913
83	571789
105	1157627
113	1442899
123	1860869
129	2146691
143	2924209
153	3581579
171	5000213
173	5177719
189	6751271

Fōrmulæ

Fōrmulæ programs are not textual, visualization/edition of programs is done showing/manipulating structures but not text. Moreover, there can be multiple visual representations of the same program. Even though it is possible to have textual representation —i.e. XML, JSON— they are intended for storage and transfer purposes more than visualization and edition.

Programs in Fōrmulæ are created/edited online in its website.

In this page you can see and run the program(s) related to this task and their results. You can also change either the programs or the parameters they are called with, for experimentation, but remember that these programs were created with the main purpose of showing a clear solution of the task, and they generally lack any kind of validation.

Solution

Go

package main

import "fmt"

func isPrime(n int) bool {
    switch {
    case n < 2:
        return false
    case n%2 == 0:
        return n == 2
    case n%3 == 0:
        return n == 3
    default:
        d := 5
        for d*d <= n {
            if n%d == 0 {
                return false
            }
            d += 2
            if n%d == 0 {
                return false
            }
            d += 4
        }
        return true
    }
}

func commatize(n int) string {
    s := fmt.Sprintf("%d", n)
    if n < 0 {
        s = s[1:]
    }
    le := len(s)
    for i := le - 3; i >= 1; i -= 3 {
        s = s[0:i] + "," + s[i:]
    }
    if n >= 0 {
        return s
    }
    return "-" + s
}

func main() {
    const limit = 200
    for n := 1; n < limit; n++ {
        p := n*n*n + 2
        if isPrime(p) {
            fmt.Printf("n = %3d => n³ + 2 = %9s\n", n, commatize(p))
        }
    }
}
Output:
n =   1 => n³ + 2 =         3
n =   3 => n³ + 2 =        29
n =   5 => n³ + 2 =       127
n =  29 => n³ + 2 =    24,391
n =  45 => n³ + 2 =    91,127
n =  63 => n³ + 2 =   250,049
n =  65 => n³ + 2 =   274,627
n =  69 => n³ + 2 =   328,511
n =  71 => n³ + 2 =   357,913
n =  83 => n³ + 2 =   571,789
n = 105 => n³ + 2 = 1,157,627
n = 113 => n³ + 2 = 1,442,899
n = 123 => n³ + 2 = 1,860,869
n = 129 => n³ + 2 = 2,146,691
n = 143 => n³ + 2 = 2,924,209
n = 153 => n³ + 2 = 3,581,579
n = 171 => n³ + 2 = 5,000,213
n = 173 => n³ + 2 = 5,177,719
n = 189 => n³ + 2 = 6,751,271

J

([,.2+]^3:)@([#~1:p:2+]^3:) }.i.200x
Output:
  1       3
  3      29
  5     127
 29   24391
 45   91127
 63  250049
 65  274627
 69  328511
 71  357913
 83  571789
105 1157627
113 1442899
123 1860869
129 2146691
143 2924209
153 3581579
171 5000213
173 5177719
189 6751271

jq

Works with: jq

Works with gojq, the Go implementation of jq

Using a definition of `is_prime` such as can be found at Safe_primes_and_unsafe_primes:

range(1;200) | pow(.; 3) + 2 | select(is_prime)
Output:
3
29
127
24391
91127
250049
274627
328511
357913
571789
1157627
1442899
1860869
2146691
2924209
3581579
5000213
5177719
6751271

Julia

# Formatting output as in Go example.
using Primes, Formatting

isncubedplus2prime(x) = begin fx = x * x * x + 2; (isprime(fx), fx) end

tostring(x, fx) = "n = " * lpad(x, 3) * " => n³ + 2 =" * lpad(format(fx, commas=true), 10)

function filterprintresults(x_to_bool_and_fx, start, stop, stringify=(x, fx)->"$x $fx", doprint=true)
    ncount = 0
    println("Filtering $x_to_bool_and_fx for integers between $start and $stop:\n")
    for n in start+1:stop-1
        isone, result = x_to_bool_and_fx(n)
        if isone
            doprint && println(stringify(n, result))
            ncount += 1
        end
    end
    println("\nThe total found was $ncount.")
end

filterprintresults(isncubedplus2prime, 0, 200, tostring)
Output:
n =   1 => n³ + 2 =         3
n =   3 => n³ + 2 =        29
n =   5 => n³ + 2 =       127
n =  29 => n³ + 2 =    24,391
n =  45 => n³ + 2 =    91,127
n =  63 => n³ + 2 =   250,049
n =  65 => n³ + 2 =   274,627
n =  69 => n³ + 2 =   328,511
n =  71 => n³ + 2 =   357,913
n =  83 => n³ + 2 =   571,789
n = 105 => n³ + 2 = 1,157,627
n = 113 => n³ + 2 = 1,442,899
n = 123 => n³ + 2 = 1,860,869
n = 129 => n³ + 2 = 2,146,691
n = 143 => n³ + 2 = 2,924,209
n = 153 => n³ + 2 = 3,581,579
n = 171 => n³ + 2 = 5,000,213
n = 173 => n³ + 2 = 5,177,719
n = 189 => n³ + 2 = 6,751,271

The total found was 19.

One-liner version

using Primes; println(filter(isprime, map(x -> x^3 + 2, 1:199)))
Output:

[3, 29, 127, 24391, 91127, 250049, 274627, 328511, 357913, 571789, 1157627, 1442899, 1860869, 2146691, 2924209, 3581579, 5000213, 5177719, 6751271]

MAD

            NORMAL MODE IS INTEGER
            
            INTERNAL FUNCTION(P)
            ENTRY TO PRIME.
            WHENEVER P.L.2, FUNCTION RETURN 0B
            WHENEVER P.E.P/2*2, FUNCTION RETURN P.E.2
            WHENEVER P.E.P/3*3, FUNCTION RETURN P.E.3
            D = 5
CHKDIV      WHENEVER D*D.LE.P
                WHENEVER P.E.P/D*D, FUNCTION RETURN 0B
                D = D+2
                WHENEVER P.E.P/D*D, FUNCTION RETURN 0B
                D = D+4
                TRANSFER TO CHKDIV
            END OF CONDITIONAL
            FUNCTION RETURN 1B
            END OF FUNCTION
            
            VECTOR VALUES FMT = $4HN = ,I3,S4,12HN*N*N + 2 = ,I7*$
            
            THROUGH LOOP, FOR N=1, 1, N.GE.200
            M = N*N*N + 2
            WHENEVER PRIME.(M)
                PRINT FORMAT FMT,N,M
            END OF CONDITIONAL
LOOP        CONTINUE
            END OF PROGRAM
Output:
N =   1    N*N*N + 2 =       3
N =   3    N*N*N + 2 =      29
N =   5    N*N*N + 2 =     127
N =  29    N*N*N + 2 =   24391
N =  45    N*N*N + 2 =   91127
N =  63    N*N*N + 2 =  250049
N =  65    N*N*N + 2 =  274627
N =  69    N*N*N + 2 =  328511
N =  71    N*N*N + 2 =  357913
N =  83    N*N*N + 2 =  571789
N = 105    N*N*N + 2 = 1157627
N = 113    N*N*N + 2 = 1442899
N = 123    N*N*N + 2 = 1860869
N = 129    N*N*N + 2 = 2146691
N = 143    N*N*N + 2 = 2924209
N = 153    N*N*N + 2 = 3581579
N = 171    N*N*N + 2 = 5000213
N = 173    N*N*N + 2 = 5177719
N = 189    N*N*N + 2 = 6751271

Mathematica/Wolfram Language

Select[Range[199]^3 + 2, PrimeQ]
Output:
{3, 29, 127, 24391, 91127, 250049, 274627, 328511, 357913, 571789, 1157627, 1442899, 1860869, 2146691, 2924209, 3581579, 5000213, 5177719, 6751271}

Nim

import strutils

func isPrime(n: Positive): bool =
  if n < 2: return false
  if n mod 2 == 0: return n == 2
  if n mod 3 == 0: return n == 3
  var d = 5
  while d * d <= n:
    if n mod d == 0: return false
    inc d, 2
    if n mod d == 0: return false
    inc d, 4
  result = true

for n in 1..<200:
  let p = n * n * n + 2
  if p.isPrime:
    echo ($n).align(3), " → ", p
Output:
  1 → 3
  3 → 29
  5 → 127
 29 → 24391
 45 → 91127
 63 → 250049
 65 → 274627
 69 → 328511
 71 → 357913
 83 → 571789
105 → 1157627
113 → 1442899
123 → 1860869
129 → 2146691
143 → 2924209
153 → 3581579
171 → 5000213
173 → 5177719
189 → 6751271

PARI/GP

for(N=1,200,if(isprime(N^3+2),print(N," ",N^3+2)))
Output:
1 3
3 29
5 127
29 24391
45 91127
63 250049
65 274627
69 328511
71 357913
83 571789
105 1157627
113 1442899
123 1860869
129 2146691
143 2924209
153 3581579
171 5000213
173 5177719
189 6751271

Pascal

Free Pascal

Translation of: Delphi
Library: PrimTrial
program Find_prime_numbers_of_the_form_n_n_n_plus_2;
{$IFDEF FPC}
  {$MODE DELPHI} {$Optimization ON,ALL} {$COPERATORS ON}{$CODEALIGN proc=16}
{$ENDIF}
{$IFDEF WINDOWS}
   {$APPTYPE CONSOLE}
{$ENDIF}
uses
  PrimTrial;
type
  myString = String[31];

function Numb2USA(n:Uint64):myString;
const
//extend s by the count of comma to be inserted
  deltaLength : array[0..24] of byte =
    (0,0,0,0,1,1,1,2,2,2,3,3,3,4,4,4,5,5,5,6,6,6,7,7,7);
var
  pI :pChar;
  i,j : NativeInt;
Begin
  str(n,result);
  i := length(result);
 //extend s by the count of comma to be inserted
// j := i+ (i-1) div 3;
  j := i+deltaLength[i];
  if i<> j then
  Begin
    setlength(result,j);
    pI := @result[1];
    dec(pI);
    while i > 3 do
    Begin
       //copy 3 digits
       pI[j] := pI[i];
       pI[j-1] := pI[i-1];
       pI[j-2] := pI[i-2];
       // insert comma
       pI[j-3] := ',';
       dec(i,3);
       dec(j,4);
    end;
  end;
end;

function n3_2(n:Uint32):Uint64;inline;
begin
  n3_2 := UInt64(n)*n*n+2;
end;

const
  limit =200;//trunc(exp(ln((HIGH(UInt32)-2))/3));

var
  p : Uint64;
  n : Uint32;
begin
  n := 1;
  repeat
    p := n3_2(n);
    if isPrime(p) then
      writeln('n = ', Numb2USA(n):4, ' => n^3 + 2 = ', Numb2USA(p): 10);
    inc(n,2);// n must be odd for n > 0
  until n > Limit;
  {$IFDEF WINDOWS}
  readln;
  {$IFEND}
end.
Output:
n =    1 => n^3 + 2 =          3
n =    3 => n^3 + 2 =         29
n =    5 => n^3 + 2 =        127
n =   29 => n^3 + 2 =     24,391
n =   45 => n^3 + 2 =     91,127
n =   63 => n^3 + 2 =    250,049
n =   65 => n^3 + 2 =    274,627
n =   69 => n^3 + 2 =    328,511
n =   71 => n^3 + 2 =    357,913
n =   83 => n^3 + 2 =    571,789
n =  105 => n^3 + 2 =  1,157,627
n =  113 => n^3 + 2 =  1,442,899
n =  123 => n^3 + 2 =  1,860,869
n =  129 => n^3 + 2 =  2,146,691
n =  143 => n^3 + 2 =  2,924,209
n =  153 => n^3 + 2 =  3,581,579
n =  171 => n^3 + 2 =  5,000,213
n =  173 => n^3 + 2 =  5,177,719
n =  189 => n^3 + 2 =  6,751,271

Perl

use strict;
use warnings;
use feature 'say';

# basic task results
say join ' ', grep { is_prime $_ } map { $_**3 + 2 } grep { 0 != $_%2 } 1..199;

# generalize a bit, how many primes over a range of exponents and offsets?
use Math::AnyNum ':all'; # in order to handle large values
say '   ' . sprintf '%4d'x11 , 1..10;
for my $e (1..10) {
  printf  '%2d ', $e;
  for my $o (1..10) {
    printf  '%4d', scalar grep { is_prime $_ } map { $_**$e + $o } 1..199;
  }
  print "\n";
}
Output:
3 29 127 24391 91127 250049 274627 328511 357913 571789 1157627 1442899 1860869 2146691 2924209 3581579 5000213 5177719 6751271

      1   2   3   4   5   6   7   8   9  10
 1   46  45  44  44  43  43  42  42  42  42
 2   34  17  29  34  12  19  49  19  24  32
 3    1  19  26  25  23  17  18   0  28  20
 4   30  13  20   1   7  12  28   7   6  11
 5    1  12  14  14  11   7  15  17  12   3
 6    1   5  19  11   3   2  24   0   7  11
 7    1  10   8   8   7   9   7   6   9   8
 8    7   7   7   1   2   5   9   5   1   8
 9    1   5   7   7   5   5   6   0   9   6
10    1   3   3   9   3   1   5   3   2   1

Phix

function pn3p2(integer n)
    integer n3p2 = power(n,3)+2
    return iff(is_prime(n3p2)?{n,n3p2}:0)
end function
sequence res = filter(apply(tagset(199,1,2),pn3p2),"!=",0)
printf(1,"Found %d primes of the form n^3+2:\n",length(res))
papply(true,printf,{1,{"n = %3d => n^3+2 = %,9d\n"},res})
Output:
Found 19 primes of the form n^3+2:
n =   1 => n^3+2 =         3
n =   3 => n^3+2 =        29
n =   5 => n^3+2 =       127
n =  29 => n^3+2 =    24,391
n =  45 => n^3+2 =    91,127
n =  63 => n^3+2 =   250,049
n =  65 => n^3+2 =   274,627
n =  69 => n^3+2 =   328,511
n =  71 => n^3+2 =   357,913
n =  83 => n^3+2 =   571,789
n = 105 => n^3+2 = 1,157,627
n = 113 => n^3+2 = 1,442,899
n = 123 => n^3+2 = 1,860,869
n = 129 => n^3+2 = 2,146,691
n = 143 => n^3+2 = 2,924,209
n = 153 => n^3+2 = 3,581,579
n = 171 => n^3+2 = 5,000,213
n = 173 => n^3+2 = 5,177,719
n = 189 => n^3+2 = 6,751,271

Plain English

To run:
Start up.
Put 1 into a counter.
Loop.
Put the counter into a number.
Raise the number to 3.
Add 2 to the number.
If the number is prime, write the counter then " " then the number on the console.
Add 2 to the counter.
If the counter is greater than 200, break.
Repeat.
Write "Done." on the console.
Wait for the escape key.
Shut down.
Output:
1 3
3 29
5 127
29 24391
45 91127
63 250049
65 274627
69 328511
71 357913
83 571789
105 1157627
113 1442899
123 1860869
129 2146691
143 2924209
153 3581579
171 5000213
173 5177719
189 6751271
Done.


Python

#!/usr/bin/python

def isPrime(n):
    for i in range(2, int(n**0.5) + 1):
        if n % i == 0:
            return False        
    return True

if __name__ == '__main__':
    for n in range(1, 200):
        if isPrime(n**3+2):
            print(f'{n}\t{n**3+2}');
Output:
1	3
3	29
5	127
29	24391
45	91127
63	250049
65	274627
69	328511
71	357913
83	571789
105	1157627
113	1442899
123	1860869
129	2146691
143	2924209
153	3581579
171	5000213
173	5177719
189	6751271

Quackery

prime is defined at Miller–Rabin primality test#Quackery.

  [ dip number$
    over size -
    space swap of
    swap join echo$ ] is recho ( n n --> )

  199 times
    [ i^ 1+ 3 ** 2 +
      dup prime iff
        [ i^ 1+ 4 recho
          sp 7 recho cr ]
      else drop ]
Output:
   1       3
   3      29
   5     127
  29   24391
  45   91127
  63  250049
  65  274627
  69  328511
  71  357913
  83  571789
 105 1157627
 113 1442899
 123 1860869
 129 2146691
 143 2924209
 153 3581579
 171 5000213
 173 5177719
 189 6751271

Raku

# 20210315 Raku programming solution

say ((1199³ »+»2).grep: *.is-prime
Output:
(3 29 127 24391 91127 250049 274627 328511 357913 571789 1157627 1442899 1860869 2146691 2924209 3581579 5000213 5177719 6751271)

REXX

Since REXX doesn't have a   isPrime   function,   this REXX program generates a number of primes such that some
numbers can be tested for primality directly,   other numbers have to be tested by trial division for primality.  

A suitable number was calculated to generate a number of primes such that about half of the computing time used to
test the numbers for primality could be directly determined their primality,   the other half of the computing time used
would use trial division.

Since the task's requirements are pretty straight-forward and easy,   a little extra code was added for presentation
(title and title separator line,   the count of primes found,   and commatization of the numbers).

/*REXX program  finds and displays      n       primes of the form:     n**3  +  2.     */
parse arg LO HI hp .                             /*obtain optional argument from the CL.*/
if LO=='' | LO==","  then LO=   0                /*Not specified?  Then use the default.*/
if HI=='' | HI==","  then HI= 200                /* "      "         "   "   "      "   */
if hp=='' | hp==","  then hp=  19                /* "      "         "   "   "      "   */
h= max(iSqrt(HI**3), hp**3)                      /*a high prime to generate primes to.  */
w= length( commas(HI**3) ) + 3
call genP                                        /*build array of semaphores for primes.*/
say right('n', 20)   '  (n**3 + 2)'              /*display a title for the output list. */
say left('', 20 + w + 20, '─')                   /*display a  sep  for the output list. */
finds= 0                                         /*# of triplet strange primes (so far).*/

    do j=LO+1  by 2  to HI-1                     /*look for primes of form of: n**3 + 2 */
    x= j**3 + 2
    if x<=@.#  then if \!.x  then iterate        /*Not a semaphore prime?  Then skip it.*/
                             else nop            /*the  NOP  matches up with the "THEN".*/
               else do k=2  while @.k**2<=x      /*perform a primality test by division.*/
                    if x//@.k==0  then iterate j
                    end   /*k*/
    finds= finds + 1                             /*bump # primes found of form:  n**3+2 */
    say right(commas(j), 20)  right( commas(x), w)
    end   /*j*/

say left('', 20 + w + 20, '─');      say         /*display a  sep  for the output list. */
say 'Found '      commas(finds)      ' primes in the form of:  n**3 + 2'
exit 0                                           /*stick a fork in it,  we're all done. */
/*──────────────────────────────────────────────────────────────────────────────────────*/
commas: parse arg ?;  do jc=length(?)-3  to 1  by -3; ?=insert(',', ?, jc); end;  return ?
/*──────────────────────────────────────────────────────────────────────────────────────*/
iSqrt: procedure; parse arg x;  r=0;  q=1;             do while q<=x;  q=q*4;  end
                  do while q>1; q=q%4; _=x-r-q; r=r%2; if _>=0 then do;x=_;r=r+q; end; end
       return r
/*──────────────────────────────────────────────────────────────────────────────────────*/
genP: !.= 0;  pad= left('', 9)                   /*placeholders for primes; width of #'s*/
      @.1=2;  @.2=3;  @.3=5;  @.4=7;  @.5=11     /*define some low primes.              */
      !.2=1;  !.3=1;  !.5=1;  !.7=1;  !.11=1     /*   "     "   "    "     flags.       */
                        #=5;     s.#= @.# **2    /*number of primes so far;     prime². */
                                                 /* [↓]  generate more  primes  ≤  h.   */
        do j=@.#+2  by 2  to h                   /*find odd primes from here on.        */
        parse var j '' -1 _; if     _==5  then iterate  /*J divisible by 5?  (right dig)*/
                             if j// 3==0  then iterate  /*"     "      " 3?             */
                             if j// 7==0  then iterate  /*"     "      " 7?             */
                                                 /* [↑]  the above five lines saves time*/
               do k=5  while s.k<=j              /* [↓]  divide by the known odd primes.*/
               if j // @.k == 0  then iterate j  /*Is  J ÷ X?  Then not prime.     ___  */
               end   /*k*/                       /* [↑]  only process numbers  ≤  √ J   */
        #= #+1;    @.#= j;    s.#= j*j;   !.j= 1 /*bump # of Ps; assign next P;  P²; P# */
        end          /*j*/;   return
output   when using the default inputs:
                   n   (n**3 + 2)
────────────────────────────────────────────────────
                   1            3
                   3           29
                   5          127
                  29       24,391
                  45       91,127
                  63      250,049
                  65      274,627
                  69      328,511
                  71      357,913
                  83      571,789
                 105    1,157,627
                 113    1,442,899
                 123    1,860,869
                 129    2,146,691
                 143    2,924,209
                 153    3,581,579
                 171    5,000,213
                 173    5,177,719
                 189    6,751,271
────────────────────────────────────────────────────

Found  19  primes in the form of:  n**3 + 2

Ring

load "stdlib.ring"

see "working..." + nl

for n = 1 to 200 step 2
    pr = pow(n,3)+2
    if isprime(pr)
       see "n = " + n + " => n³+2 = " + pr + nl
    ok
next

see "done..." + nl
Output:
working...
n = 1 => n³+2 = 3
n = 3 => n³+2 = 29
n = 5 => n³+2 = 127
n = 29 => n³+2 = 24391
n = 45 => n³+2 = 91127
n = 63 => n³+2 = 250049
n = 65 => n³+2 = 274627
n = 69 => n³+2 = 328511
n = 71 => n³+2 = 357913
n = 83 => n³+2 = 571789
n = 105 => n³+2 = 1157627
n = 113 => n³+2 = 1442899
n = 123 => n³+2 = 1860869
n = 129 => n³+2 = 2146691
n = 143 => n³+2 = 2924209
n = 153 => n³+2 = 3581579
n = 171 => n³+2 = 5000213
n = 173 => n³+2 = 5177719
n = 189 => n³+2 = 6751271
done...

RPL

Works with: HP version 49g
≪ { }
  1 200 FOR n
     n 3 ^ 2 +
     IF DUP ISPRIME? THEN + ELSE DROP END
  NEXT
≫ 'TASK' STO
Output:
1: {3 29 127 24391 91127 250049 274627 328511 357913 571789 1157627 1442899 1860869 2146691 2924209 3581579 5000213 5177719 6751271}

Ruby

require 'prime'
p (1..200).filter_map{|n| cand = n**3 + 2; cand if cand.prime? }
Output:
[3, 29, 127, 24391, 91127, 250049, 274627, 328511, 357913, 571789, 1157627, 1442899, 1860869, 2146691, 2924209, 3581579, 5000213, 5177719, 6751271]

Rust

// 202100327 Rust programming solution

use primes::is_prime;

fn main() {

   let mut count = 0;
   let begin     = 0;
   let end       = 200;

   println!("Find prime numbers of the form");
   println!("   n => n³ + 2 ");

   for n in begin+1..end-1 {
      let m = n*n*n+2;
      if is_prime(m) {
        println!("{:4} => {}", n, m);
        count += 1;
      }
   }

   println!("Found {} such prime numbers where {} < n < {}.", count,begin,end);
}
Output:
Find prime numbers of the form
   n => n³ + 2
   1 => 3
   3 => 29
   5 => 127
  29 => 24391
  45 => 91127
  63 => 250049
  65 => 274627
  69 => 328511
  71 => 357913
  83 => 571789
 105 => 1157627
 113 => 1442899
 123 => 1860869
 129 => 2146691
 143 => 2924209
 153 => 3581579
 171 => 5000213
 173 => 5177719
 189 => 6751271
Found 19 such prime numbers where 0 < n < 200.

Seed7

Credit for isPrime function: [1]

$ include "seed7_05.s7i";

const func boolean: isPrime (in integer: number) is func
  result
    var boolean: prime is FALSE;
  local
    var integer: upTo is 0;
    var integer: testNum is 3;
  begin
    if number = 2 then
      prime := TRUE;
    elsif odd(number) and number > 2 then
      upTo := sqrt(number);
      while number rem testNum <> 0 and testNum <= upTo do
        testNum +:= 2;
      end while;
      prime := testNum > upTo;
    end if;
  end func;

const proc: main is func
  local
    const integer: limit is 199;
    var integer: n is 1;
    var integer: p is 0;
  begin
    writeln("  n   n**3+2");
    writeln("------------");
    for n range 1 to limit step 2 do
      p := n ** 3 + 2;
      if isPrime(p) then
        writeln(n lpad 3 <& p lpad 9);
      end if;
    end for;
  end func;
Output:
  n   n**3+2
------------
  1        3
  3       29
  5      127
 29    24391
 45    91127
 63   250049
 65   274627
 69   328511
 71   357913
 83   571789
105  1157627
113  1442899
123  1860869
129  2146691
143  2924209
153  3581579
171  5000213
173  5177719
189  6751271

Sidef

1..^200 -> map { _**3 + 2 }.grep {.is_prime}.say
Output:
[3, 29, 127, 24391, 91127, 250049, 274627, 328511, 357913, 571789, 1157627, 1442899, 1860869, 2146691, 2924209, 3581579, 5000213, 5177719, 6751271]

Swift

import Foundation

func isPrime(_ n: Int) -> Bool {
    if n < 2 {
        return false
    }
    if n % 2 == 0 {
        return n == 2
    }
    if n % 3 == 0 {
        return n == 3
    }
    var p = 5
    while p * p <= n {
        if n % p == 0 {
            return false
        }
        p += 2
        if n % p == 0 {
            return false
        }
        p += 4
    }
    return true
}

for n in 1...200 {
    let p = n * n * n + 2
    if isPrime(p) {
        print(String(format: "%3d%9d", n, p))
    }
}
Output:
  1        3
  3       29
  5      127
 29    24391
 45    91127
 63   250049
 65   274627
 69   328511
 71   357913
 83   571789
105  1157627
113  1442899
123  1860869
129  2146691
143  2924209
153  3581579
171  5000213
173  5177719
189  6751271

Wren

Library: Wren-math
Library: Wren-iterate
Library: Wren-fmt

If n is even then n³ + 2 is also even, so we only need to examine odd values of n here.

import "./math" for Int
import "./iterate" for Stepped
import "./fmt" for Fmt

var limit = 200
for (n in Stepped.new(1...limit, 2)) {
    var p = n*n*n + 2
    if (Int.isPrime(p)) Fmt.print("n = $3d => n³ + 2 = $,9d", n, p)
}
Output:
n =   1 => n³ + 2 =         3
n =   3 => n³ + 2 =        29
n =   5 => n³ + 2 =       127
n =  29 => n³ + 2 =    24,391
n =  45 => n³ + 2 =    91,127
n =  63 => n³ + 2 =   250,049
n =  65 => n³ + 2 =   274,627
n =  69 => n³ + 2 =   328,511
n =  71 => n³ + 2 =   357,913
n =  83 => n³ + 2 =   571,789
n = 105 => n³ + 2 = 1,157,627
n = 113 => n³ + 2 = 1,442,899
n = 123 => n³ + 2 = 1,860,869
n = 129 => n³ + 2 = 2,146,691
n = 143 => n³ + 2 = 2,924,209
n = 153 => n³ + 2 = 3,581,579
n = 171 => n³ + 2 = 5,000,213
n = 173 => n³ + 2 = 5,177,719
n = 189 => n³ + 2 = 6,751,271

XPL0

func IsPrime(N);        \Return 'true' if N is a prime number
int  N, I;
[if N <= 1 then return false;
for I:= 2 to sqrt(N) do
    if rem(N/I) = 0 then return false;
return true;
];

int N;
[for N:= 1 to 199 do
    [if IsPrime(N*N*N+2) then
        [IntOut(0, N);
        ChOut(0, 9\tab\);
        IntOut(0, N*N*N+2);
        CrLf(0);
        ]
    ];
]
Output:
1       3
3       29
5       127
29      24391
45      91127
63      250049
65      274627
69      328511
71      357913
83      571789
105     1157627
113     1442899
123     1860869
129     2146691
143     2924209
153     3581579
171     5000213
173     5177719
189     6751271