g | x | w | all
Bytes Lang Time Link
027Vyxal 3250805T150436ZThemooni
085AWK241105T164131Zxrs
058Perl 5 ap201208T163953ZXcali
022Jelly201127T113046Zcaird co
039MATL160218T001601ZLuis Men
140Lua160218T085906ZKatenkyo
nan160219T224923ZSumeet
034CJam160217T215449ZMartin E
169Lua160219T173534ZDavisDud
096PowerShell160217T210652ZAdmBorkB
094Haskell160219T001613ZMichael
096Python 2160219T013050Zxnor
067Bash + GNU utilities160217T215124ZDigital
229Oracle SQL 11.2160218T152211ZJeto
087JavaScript ES6160218T145740Zedc65
110JavaScript ES6160218T011433ZNeil
168C# 6160218T134330ZPaulo C&
107R160218T104656Zplannapu
082Ruby160217T210710ZDoorknob
191JavaScript ES6160217T231506ZConor O&
103Python 3160217T202825ZMorgan T
032Pyth160217T202819ZBlue

Vyxal 3, 27 bytes

kNʎᏐ0Ef∩¬n¤"ƛ⎊∥{⊆“¤×E∑¹≥∧}⊖

Vyxal It Online!

not happy with it; naive impl.

AWK, 95 85 bytes

{for(i=0;z<$1;i++){t=i;if(gsub(/[469]/,X,t)+2*gsub(/0|8/,X,t)>=$2&&X~t&&++z)print i}}

Attempt This Online!

{for(i=0;z<$1;i++)   # z is hit count
{t=i;                # temp
if(gsub(/[469]/,X,t) # count and delete matches
+2*gsub(/0|8/,X,t)   # 2x hits
>=$2                 # goal holiness
&&X~t                # string should now be empty
&&++z)               # increment hit counter
print i}}            # print

Old attempt

{for(j=i=0;j!=$1;i++){a=i;i~/[12357]/||gsub(/[469]/,X,a)+2*gsub(/[80]/,X,a)>=$2&&++j}print i-1}

...

{for(j=i=0;j!=$1;i++)  # j counts number of hits up to n
{a=i;                  # tmp
i~/[12357]/||          # unholy numbers
gsub(/[469]/,X,a)+     # gsub returns number of matches/subs
2*gsub(/[80]/,X,a)     # 2 points per match
>=$2&&++j}             # if >= h, add hit
print i-1}             # overshoot

Perl 5 -ap, 58 bytes

$_=0;$n=<>;$_++while/[12357]/||y/64980//+y/80//<"@F"||--$n

Try it online!

Input is on two lines with h on the first and n on the second.

Jelly, 23 22 bytes

“J,1’D=þD§S×ẠƊ
0Ç<Cɗ#Ṫ

Try it online!

How it works

0Ç<Cɗ#Ṫ - Main link. Takes h on the left and n on the right
    ɗ   - Group the previous 3 links into a dyad f(k, h):
 Ç      -   Call the helper link on k
  <     -   Less than h?
   C    -   Complement; 0 -> 1, 1 -> 0
0    #  - Count up k = 0, 1, 2, ... until n k's return true under f(k, h)
      Ṫ - Take the last k

“J,1’D=þD§S×ẠƊ - Helper link. Takes an integer k on the left
        D      - Digits of k
“J,1’          - Compressed integer 4698800
     D         - Converted to digits
       þ       - Outer product with:
      =        -   Equality
         §     - Sum of each row
             Ɗ - Group the previous 3 links into a monad g(s) over the sums:
          S    -   Sum
            Ạ  -   All are non-zero?
           ×   -   Product
                 This calculates the holiness of k, which is 0 if k isn't holy

MATL, 39 40 bytes

x~q`QtV4688900V!=stA*s2G<?T}N1G=?F1$}tT

Inputs are n and h in that order.

Try it online!

We need to keep track of two numbers: current candidate number (to check its holiness) and amount of numbers found that are holy enough. The first is the top od the stack, and the latter is kept as the number of elements in the stack. When the program finishes, only the top needs to displayed.

x~q          % implicitly take two inputs. Delete one and transform the other into -1
`            % do...while loop
  Q          %   add 1 to current candidate number
  tV         %   duplicate and convert to string
  4688900V!  %   column char array of '4', '6' etc. Note '8' and '0' are repeated 
  =          %   compare all combinations. Gives 2D array
  s          %   sum of each column: holiness of each digit of candidate number
  tA*        %   are all digits holy? Multiply by that
  s          %   sum of holiness of all digits, provided they are all holy
  2G<        %   is that less than second input (h)?
  ?          %   if so: current candidate not valid. We'll try the next
    T        %     push true to be used as loop condition: next iteration
  }          %   else: current candidate valid
    N1G=     %     does stack size equal first input (n)?
    ?        %     if so: we're done
      F1$    %       push false to exit loop. Spec 1 input, to display only top
    }        %     else: make a copy of this number
      tT     %       duplicate number. Push true to continue with next iteration
             %     implicit end if 
             %   implicit end if 
             % implicit end do...while. If top of stack is truthy: next iteration
             % implicit display

Lua, 155 141 140 Bytes

Takes both inputs by command-line argument(first argument is n, then h)

Edit: Thanks to @DavisDude, who helped me shaving 14 bytes off and reminded me I didn't have to print all the holy numbers up to n, but only the nth.

a={}x=0while(#a<arg[1])do b,c=(x..""):gsub("[08]","")e,d=b:gsub("[469]","")a[#a+1],x=c*2+d>=arg[2]and #e<1 and x or nil,x+1 end print(a[#a])

Ungolfed and explanations

x,a=0,{}                      -- initialise a counter, and the array which 
                              -- contains the holy numbers found
while(#a<arg[1])              -- iterate while we found less holy numbers than n
do
  b,c=(x..""):gsub("[08]","") -- replace [08] by "", b=the new string
                              -- c=the number of subsitution
  e,d=b:gsub("[469]","")      -- same thing for [469]
  a[#a+1]=c*2+d>=arg[2]       -- insert the number into a if:nb[08]*2+nb[469]>h
             and #e<1         -- and e is empty (no unholy numbers)
             and x or nil
      x=x+1                   -- increment x
end
print(a[#a])                  -- print the last element of a

Swift

func f(n: Int, h: Int) {
    var m = 0
    let a = [1,2,3,5,7]
    for j in 0..<Int.max {
        var c = 0
        for i in (j.description.characters.map{(String($0) as NSString).integerValue}) {
            c += (a.contains(i)) ? 0 : (i == 8 || i == 0) ? 2 :1
        }
        if c >= h { m += 1; if m >= n {print(j); break}}
    }
}

CJam, 36 34 bytes

Thanks to aditsu for saving 2 bytes.

Wq~:X;{{)_Ab39643Zbf=_:*g*1bX<}g}*

Test it here.

Lua, 169 bytes

function a(n,h)H=0N=0I=-1while N<n do I=I+'1'H=0 if not I:find('[12357]') then _,b=I:gsub('[469]',1)_,c=I:gsub('[08]',1)H=b+2*c end N=H>=h and N+1 or N end print(I) end

Ungolfed:

function a(n,h) -- nth term, holiness
    H=0N=0I=-1 -- Really ugly, but hey, it works. Set up 3 vars
    while N<n do -- While nth term is lower than desired term
        I=''..I+1 -- Convert number to string (can't coerce since it will become a float)
        if not I:find('[12357]') then -- If the number doesn't have those numbers
            _,b=I:gsub('[469]',1) -- _ is the new string, b is the number of changes
            _,c=I:gsub('[08]',1) -- Same as above. Use 1 to replace to save chars
            H=b+2*c -- Increase holiness appropriately
        end
        N=H>=h and N+1 or N -- If current holiness >= desired holiness, increment N
    end 
    print(I) -- Once the loop ends, print the current term
end

PowerShell, 163 150 141 101 98 96 bytes

param($n,$h)for(--$i;$n){if(++$i-notmatch"[12357]"-and($i-replace"8|0",11).Length-ge$h){$n--}}$i

Takes input, then loops until $n is zero. We initially setting $i=-1 by using a pre-processing trick, which works because $i, having not previously been declared, is $null. Then we -- it, which causes PowerShell to evaluate it as $i = $null - 1, which is $i=-1.

Each loop we increment $i and then execute a lengthy if statement. The first part of the conditional verifies that $i doesn't have any of 12357 in it by using the -notmatch operator, to filter out the unholy numbers.

The second part of the conditional checks the quantity of holes in $i. It uses the -replace operator to replace each 8 or 0 with 11, and then compares whether the length is >= $h. We don't need to worry about stripping out the unholy numbers, since that's in the first part of the conditional, and the single-holed numbers are the same length as 1 anyway, so we don't need to replace them, either.

If that is still truthy, we decrement $n (as that means we've found another number that satisfies input requirements). Thus when the for condition is recalculated to check if $n is zero, that means we've found the nth one, so we exit the for loop, output $i and terminate.

Edit -- saved 13 bytes by using an array instead of string for $l and changing how $n is decremented/checked
Edit 2 -- saved an additional 9 bytes by checking for $n in the for conditional and moving the output outside the loop
Edit 3 -- saved a whopping 40 more bytes by radically changing how we calculate the holes
Edit 4 -- saved an additional 3 bytes by moving the ++ to be a pre-increment on the first part of the conditional
Edit 5 -- saved another 2 bytes thanks to TessellatingHeckler

Haskell, 94 bytes

c is the holiness of a digit, v the holiness of a number, n!h does the rest.

c=([2,0,0,0,1,0,1,0,2,1]!!)
v n|n>9=c(mod n 10)+v(div n 10)|1<2=c n
n!h=[i|i<-[0..],v i<=h]!!n

Note: I think this is the only answer without the characters 4,6,8.

Python 2, 96 bytes

f=lambda n,h,k=0,s="0046889":-0**n or-~f(n-(sum(map(s.count,`k`))>=h<set(str(k))<=set(s)),h,k+1)

The holyness condition on k is checked by

These are chained into a single equality using the Python 2 fact that numbers are smaller than sets.

The function is defined recursively to count up numbers k, decreasing the counter n each time a holy number of hit unless it hits 0. It could then return the k that triggered this, but it's shorter to keep the count recursively by adding 1 each time, though an off-by-one requires a base count of -1 to fix.

Bash + GNU utilities, 67

seq 0 NaN|sed -r "h;/[12357]/d;s/8|0/&&/g;/^.{$1}/!d;x"|sed $2!d\;q

Ideone.

Oracle SQL 11.2, 229 bytes

WITH v(c,p,i,j,n)AS(SELECT 0,-1,0,0,0 FROM DUAL UNION ALL SELECT c+1,c,REGEXP_COUNT(c||'','[4,6,9]'),REGEXP_COUNT(c,'[8,0]'),n+DECODE(LENGTH(p),i+j,DECODE(SIGN(i+j*2-:h),-1,0,1),0)FROM v WHERE p<c AND n<:n)SELECT MAX(p)-1 FROM v;

Un-golfed

:h -> required min holy value
:n -> nth number 

curv   -> current number
precv  -> previous number
prech1 -> number of holy 1 letters in previous number 
prech2 -> number of holy 2 letters in previous number
n      -> how many numbers with at least the required holy value 

WITH v(curv,precv,prech1,prech2,n)AS 
(
  SELECT 0 curv, -1 precv, 0 prech1, 0 prech2, 0 n FROM DUAL     -- Start with 0
  UNION ALL
  SELECT curv+1,   -- Next number
         curv,     -- Current Number 
         REGEXP_COUNT(curv||'','[4,6,9]'),  -- number of holy 1 letters
         REGEXP_COUNT(curv,'[8,0]'),        -- number of holy 2 letters
         n+DECODE(LENGTH(precv),prech1+prech2,DECODE(SIGN(prech1+prech2*2-:h),-1,0,1),0) -- Is the previous number holy enough ?
  FROM   v 
  WHERE  precv<curv   -- Needed to trick oracle cycle detection 
         AND n<:n     -- Until clause
)
SELECT MAX(precv)-1 FROM v 

JavaScript (ES6), 87

(n,h)=>eval("for(i=0;[...i+''].map(d=>r-=~!(d%8),r=0),/[12357]/.test(i)|r<h||--n;)++i")

Less golfed

f=(n,h)=>{
  for (i=0;
    // this is the loop condition
    /[12357]/.test(i) // go on if not holy
    ||([...i+''].map(d=>r-=~!(d%8),r=0),r<h) // go on if not holy enough
    ||--n; // ok, found one! go on if we need to find more
  )
    ++i; // loop body - using eval this is the returned value
  return i; // not using eval, an explicit return is needed
}  

Test

f=(n,h)=>eval("for(i=0;[...i+''].map(d=>r-=~!(d%8),r=0),/[12357]/.test(i)|r<h||--n;)++i")

function test() {
  var a,b
  [a,b]=I.value.match(/\d+/g)
  R.textContent = f(a,b)
}

test()
N, H: <input id=I value="25 2" oninput="test()"> >>
<span id=R></span>

JavaScript (ES6), 110 bytes

f=(n,h,r=[],i=0)=>r.length<n?f(n,h,/[12357]/.test(i)|[...''+i].reduce((t,c)=>t+1+!(c%8),0)<h?r:[...r,i],i+1):r

Tail recursive solution that accumulates holy numbers in an array.

Out of interest, not requiring the number to be wholly(!) holy makes the holiness count more awkward, but it still saves 10% overall:

f=(n,h,r=[],i=0)=>r.length<n?f(n,h,[...''+i].reduce((t,c)=>+"2000101021"[c]+t,0)<h?r:[...r,i],i+1):r

C# 6, 168 bytes

(n,h)=>{for(int i=0;i<=int.MaxValue;i++){string d=$"{i}";if(d.Any(y=>"12357".Contains(y)))continue;n-=d.Sum(y=>y=='0'||y=='8'?2:1)>=h?1:0;if(n==0)return i;}return -1;}

This is a Lambda Expression of type Func< int, int, int>. This code is otimized for min size (not performatic).

Below, the beautified code in method declaration (with more performance):

    int GetHolyNumber(int n, int h)
    {
        for (int i = 0; i <= int.MaxValue; i++)
        {
            string d = $"{i}";
            char[] cs = "12357".ToArray();
            if (d.Any(y => cs.Contains(y))) continue;

            n -= d.Sum(y => y == '0' || y == '8' ? 2 : 1) >= h ? 1 : 0;

            if (n == 0)
                return i;
        }
        return -1;
    }

R, 109 107 bytes

f=function(n,h){m=-1;while(n){m=m+1;if(!grepl("[12357]",m))if(nchar(gsub("([08])","\\1\\1",m))>=h)n=n-1};m}

With new lines and indentations:

f=function(n,h){
    m=-1
    while(n){
        m=m+1
        if(!grepl("[12357]",m))
            if(nchar(gsub("([08])","\\1\\1",m))>=h)
                n=n-1
    }
    m
}

Usage:

> f(4,3)
[1] 68
> f(4,2)
[1] 44
> f(6,2)
[1] 48
> f(10,2)
[1] 66

Ruby, 109 105 95 82 bytes

->n,h{(?0..?9*99).select{|x|x.count('469')+2*x.count('80')>=h&&/[12357]/!~x}[n-1]}

This is the terrible "calculate from 0 to 99999999999..." approach that happens to be 13 bytes shorter than its lazy counterpart. However, this version is unlikely to finish before the heat death of the universe. Worth 13 bytes, anyway ¯\_(ツ)_/¯

You can test it for smaller values by changing ?9*99 to, say, '99999'.

Here's the old version (95 bytes, with lazy evaluation, which runs near-instantly rather than near-never):

->n,h{(?0..?9*99).lazy.select{|x|x.count('469')+2*x.count('80')>=h&&/[12357]/!~x}.first(n)[-1]}
->n,h{
(?0..?9*99)  # range '0' (string) to '9' repeated 99 times, way more than 2**64
.lazy        # make the range lazy, so we can call `select' on it
.select{|x|  # choose only elements such that...
 x.count('469')+2*x.count('80')  # naive holiness calculation
 >=h         # is at least h
 &&/[12357]/!~x                  # naive "is holy" calculation
}
.first(n)    # take the first n elements that satisfy the condition
[-1]         # choose the last one from this array
}

JavaScript ES6, 191 bytes

Sure, this isn't the most efficient way. But you know me, I love generators <3

H=(x,o=x+"")=>(F=/^[46890]+$/).test(o)&&[...o].map(y=>d+=(F.test(y)+/8|0/.test(y)),d=0)&&d;(n,h)=>(a=(function*(h){q=0;while(1){if(H(q)>=h)yield q;q++}})(h),eval("a.next().value;".repeat(n)))

Slightly ungolfed:

H = (x, o = x + "") => (F = /^[46890]+$/).test(o) && [...o].map(y => d += (F.test(y) + /8|0/.test(y)), d = 0) && d;
Q = (n, h) => (a = (function*(h) {
    q = 0;
    while (1) {
        if (H(q) >= h) yield q;
        q++
    }
})(h), eval("a.next().value;".repeat(n)))

Python 3, 103

lambda n,h,l='4698080':[y for y in range(2**64-1)if(sum(l.count(x)-(x not in l)for x in str(y))>=h)][n]

Here's a solution that uses a more memory efficient approach, but otherwise uses the same algorithm if you want to test it.

l='4689080'
def f(n,h):
 c=i=0
 while i<n:
  if sum(l.count(x)-(x not in l)for x in str(c))>=h:u=c;i+=1
  c+=1
 return u

Test cases:

assert f(3, 1) == 6
assert f(4, 2) == 44

Pyth, 32 bytes

e.fg*g.{`46890J`Z++lJ/J`8/J`0QE0

Explanation

                                 - autoassign Q = eval(input())
 .f                           E0 -  first eval(input()) terms of func V starting Z=0

     g.{`46890J`Z                -    Are all the digits in Z in "46890"?
               `Z                -      str(Z)
              J                  -     autoassign J = ^
     g                           -    is_subset(V,^)
      .{`46890                   -     set("46890")

    *                            -   ^*V (Only return non-zero if only contains holy numbers)

                 ++lJ/J`8/J`0    -    Get the holiness of the number
                   lJ            -      len(J)
                  +              -     ^+V
                     /J`8        -      J.count("8") 
                 +               -    ^+V
                         /J`0    -     J.count("0")
   g                         Q   -  ^>=Q (Is the holiness great enough)
e                                - ^[-1]

Try it here

Takes input in the form h \n n