You're looking for an anamorphism, or reverse fold –
// unfold : ((r, state) -> List r, unit -> List r, state) -> List r
const unfold = (f, init) =>
  f ( (x, next) => [ x, ...unfold (f, next) ]
    , () => [] 
    , init
    )
    
// sampleData : List { id: Int }
const sampleData =
  unfold
    ( (next, done, i) =>
        i > 25
          ? done ()
          : next ({ id: i }, i + 1)
    , 0
    )
    
console .log (sampleData)
// [ { id: 0 }, { id : 1 }, ... { id: 25 } ]
 
 
You can get an intuition for how unfold works by seeing it used in other common programs –
// unfold : ((r, state) -> List r, unit -> List r, state) -> List r
const unfold = (f, init) =>
  f ( (x, next) => [ x, ...unfold (f, next) ]
    , () => []
    , init
    )
    
// fibseq : Int -> List Int
const fibseq = init =>
  unfold
    ( (next, done, [ n, a, b ]) =>
         n === 0
           ? done ()
           : next (a, [ n - 1, b, a + b ])
    , [ init, 0, 1 ]
    )
    
console .log (fibseq (10))
// [ 0, 1, 1, 2, 3, 5, 8, 13, 21, 34 ]
 
 
The implementation of unfold is just one possibility. Get tinkering and implement it in a way of your choosing –
// type Maybe a = Nothing | Just a    
// Just : a -> Maybe a
const Just = x =>
  ({ match: ({ Just: f }) => f (x) })
// Nothing : unit -> Maybe a
const Nothing = () =>
  ({ match: ({ Nothing: f }) => f () })
// unfold : (state -> Maybe (a, state), state) -> List a  
const unfold = (f, init) =>
  f (init) .match
    ( { Nothing: () => []
      , Just: ([ x, next ]) => [ x, ...unfold (f, next) ]
      }
    )
// fibseq : Int -> List Int
const fibseq = init =>
  unfold
    ( ([ n, a, b ]) =>
        n === 0
          ? Nothing ()
          : Just ([ a, [ n - 1, b, a + b ] ]) // <-- yikes, read more below
    , [ init, 0, 1 ]
    )
    
console .log (fibseq (10))
// [ 0, 1, 1, 2, 3, 5, 8, 13, 21, 34 ]
 
 
I cheated a little above using a [] as a tuple. This kept the program shorter but it's better to explicitly model things and consider their types. You tagged this question with functional-programming so it's worth going the extra inch to remove this kind of implicit handling from our programs. By showing this as a separate step, we isolate a technique that can be applied not just to unfold, but for any program we design –
// type Maybe a = Nothing | Just a
// type Tuple a b = { first: a, second: b }
// Just : a -> Maybe a
const Just = x =>
  ({ match: ({ Just: f }) => f (x) })
// Nothing : unit -> Maybe a
const Nothing = () =>
  ({ match: ({ Nothing: f }) => f () })
// Tuple : (a, b) -> Tuple a b
const Tuple = (first, second) =>
  ({ first, second })
// unfold : (state -> Maybe Tuple (a, state), state) -> List a  
const unfold = (f, init) =>
  f (init) .match
    ( { Nothing: () => []
      , Just: (t) => [ t.first, ...unfold (f, t.second) ] // <-- Tuple
      }
    )
// fibseq : Int -> List Int
const fibseq = init =>
  unfold
    ( ([ n, a, b ]) =>
        n === 0
          ? Nothing ()
          : Just (Tuple (a, [ n - 1, b, a + b ])) // <-- Tuple
    , [ init, 0, 1 ]
    )
    
console .log (fibseq (10))
// [ 0, 1, 1, 2, 3, 5, 8, 13, 21, 34 ]