react-ts-tab-lib/dist/index-C8Ccmap7.js

A React Typescript library rendering a Table compenent receiving in props for rows an array of a generic type T (precised when using the component) and for columns an array of objects of type Column<T> precising the displayName, the key of the T type and

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const en = "number", tn = "color", Rs = "var", Ks = "var(", rt = "${}", Ns = /var\s*\(\s*--(?:[\w-]+\s*|[\w-]+\s*,(?:\s*[^)(\s]|\s*\((?:[^)(]|\([^)(]*\))*\))+\s*)\)|#[\da-f]{3,8}|(?:rgb|hsl)a?\((?:-?[\d.]+%?[,\s]+){2}-?[\d.]+%?\s*(?:[,/]\s*)?(?:\b\d+(?:\.\d+)?|\.\d+)?%?\)|-?(?:\d+(?:\.\d+)?|\.\d+)/giu;
function Q(t) {
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    number: [],
    var: []
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}
function nn(t) {
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}
function sn(t) {
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  return (i) => {
    let r = "";
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        const a = n[o];
        a === en ? r += W(i[o]) : a === tn ? r += x.transform(i[o]) : r += i[o];
      }
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  };
}
const Bs = (t) => typeof t == "number" ? 0 : t;
function ks(t) {
  const e = nn(t);
  return sn(t)(e.map(Bs));
}
const j = {
  test: Os,
  parse: nn,
  createTransformer: sn,
  getAnimatableNone: ks
}, Ls = /* @__PURE__ */ new Set(["brightness", "contrast", "saturate", "opacity"]);
function _s(t) {
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    return t;
  const [s] = n.match(je) || [];
  if (!s)
    return t;
  const i = n.replace(s, "");
  let r = Ls.has(e) ? 1 : 0;
  return s !== n && (r *= 100), e + "(" + r + i + ")";
}
const Us = /\b([a-z-]*)\(.*?\)/gu, we = {
  ...j,
  getAnimatableNone: (t) => {
    const e = t.match(Us);
    return e ? e.map(_s).join(" ") : t;
  }
}, Gs = {
  ...En,
  // Color props
  color: x,
  backgroundColor: x,
  outlineColor: x,
  fill: x,
  stroke: x,
  // Border props
  borderColor: x,
  borderTopColor: x,
  borderRightColor: x,
  borderBottomColor: x,
  borderLeftColor: x,
  filter: we,
  WebkitFilter: we
}, rn = (t) => Gs[t];
function on(t, e) {
  let n = rn(t);
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}
const $s = /* @__PURE__ */ new Set(["auto", "none", "0"]);
function js(t, e, n) {
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  if (i && n)
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      t[r] = on(n, i);
}
const k = (t) => t * 180 / Math.PI, xe = (t) => {
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  return Me(e);
}, qs = {
  x: 4,
  y: 5,
  translateX: 4,
  translateY: 5,
  scaleX: 0,
  scaleY: 3,
  scale: (t) => (Math.abs(t[0]) + Math.abs(t[3])) / 2,
  rotate: xe,
  rotateZ: xe,
  skewX: (t) => k(Math.atan(t[1])),
  skewY: (t) => k(Math.atan(t[2])),
  skew: (t) => (Math.abs(t[1]) + Math.abs(t[2])) / 2
}, Me = (t) => (t = t % 360, t < 0 && (t += 360), t), ot = xe, at = (t) => Math.sqrt(t[0] * t[0] + t[1] * t[1]), lt = (t) => Math.sqrt(t[4] * t[4] + t[5] * t[5]), zs = {
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  y: 13,
  z: 14,
  translateX: 12,
  translateY: 13,
  translateZ: 14,
  scaleX: at,
  scaleY: lt,
  scale: (t) => (at(t) + lt(t)) / 2,
  rotateX: (t) => Me(k(Math.atan2(t[6], t[5]))),
  rotateY: (t) => Me(k(Math.atan2(-t[2], t[0]))),
  rotateZ: ot,
  rotate: ot,
  skewX: (t) => k(Math.atan(t[4])),
  skewY: (t) => k(Math.atan(t[1])),
  skew: (t) => (Math.abs(t[1]) + Math.abs(t[4])) / 2
};
function ut(t) {
  return t.includes("scale") ? 1 : 0;
}
function Pe(t, e) {
  if (!t || t === "none")
    return ut(e);
  const n = t.match(/^matrix3d\(([-\d.e\s,]+)\)$/u);
  let s, i;
  if (n)
    s = zs, i = n;
  else {
    const a = t.match(/^matrix\(([-\d.e\s,]+)\)$/u);
    s = qs, i = a;
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  if (!i)
    return ut(e);
  const r = s[e], o = i[1].split(",").map(Ws);
  return typeof r == "function" ? r(o) : o[r];
}
const Hs = (t, e) => {
  const { transform: n = "none" } = getComputedStyle(t);
  return Pe(n, e);
};
function Ws(t) {
  return parseFloat(t.trim());
}
const ct = (t) => t === Ne || t === Dt, Ys = /* @__PURE__ */ new Set(["x", "y", "z"]), Xs = Ct.filter((t) => !Ys.has(t));
function Zs(t) {
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    const s = t.getValue(n);
    s !== void 0 && (e.push([n, s.get()]), s.set(n.startsWith("scale") ? 1 : 0));
  }), e;
}
const $ = {
  // Dimensions
  width: ({ x: t }, { paddingLeft: e = "0", paddingRight: n = "0" }) => t.max - t.min - parseFloat(e) - parseFloat(n),
  height: ({ y: t }, { paddingTop: e = "0", paddingBottom: n = "0" }) => t.max - t.min - parseFloat(e) - parseFloat(n),
  top: (t, { top: e }) => parseFloat(e),
  left: (t, { left: e }) => parseFloat(e),
  bottom: ({ y: t }, { top: e }) => parseFloat(e) + (t.max - t.min),
  right: ({ x: t }, { left: e }) => parseFloat(e) + (t.max - t.min),
  // Transform
  x: (t, { transform: e }) => Pe(e, "x"),
  y: (t, { transform: e }) => Pe(e, "y")
};
$.translateX = $.x;
$.translateY = $.y;
const L = /* @__PURE__ */ new Set();
let Ce = !1, Fe = !1;
function an() {
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    const t = Array.from(L).filter((s) => s.needsMeasurement), e = new Set(t.map((s) => s.element)), n = /* @__PURE__ */ new Map();
    e.forEach((s) => {
      const i = Zs(s);
      i.length && (n.set(s, i), s.render());
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      s.render();
      const i = n.get(s);
      i && i.forEach(([r, o]) => {
        var a;
        (a = s.getValue(r)) === null || a === void 0 || a.set(o);
      });
    }), t.forEach((s) => s.measureEndState()), t.forEach((s) => {
      s.suspendedScrollY !== void 0 && window.scrollTo(0, s.suspendedScrollY);
    });
  }
  Fe = !1, Ce = !1, L.forEach((t) => t.complete()), L.clear();
}
function ln() {
  L.forEach((t) => {
    t.readKeyframes(), t.needsMeasurement && (Fe = !0);
  });
}
function Js() {
  ln(), an();
}
class ze {
  constructor(e, n, s, i, r, o = !1) {
    this.isComplete = !1, this.isAsync = !1, this.needsMeasurement = !1, this.isScheduled = !1, this.unresolvedKeyframes = [...e], this.onComplete = n, this.name = s, this.motionValue = i, this.element = r, this.isAsync = o;
  }
  scheduleResolve() {
    this.isScheduled = !0, this.isAsync ? (L.add(this), Ce || (Ce = !0, D.read(ln), D.resolveKeyframes(an))) : (this.readKeyframes(), this.complete());
  }
  readKeyframes() {
    const { unresolvedKeyframes: e, name: n, element: s, motionValue: i } = this;
    for (let r = 0; r < e.length; r++)
      if (e[r] === null)
        if (r === 0) {
          const o = i == null ? void 0 : i.get(), a = e[e.length - 1];
          if (o !== void 0)
            e[0] = o;
          else if (s && n) {
            const l = s.readValue(n, a);
            l != null && (e[0] = l);
          }
          e[0] === void 0 && (e[0] = a), i && o === void 0 && i.set(e[0]);
        } else
          e[r] = e[r - 1];
  }
  setFinalKeyframe() {
  }
  measureInitialState() {
  }
  renderEndStyles() {
  }
  measureEndState() {
  }
  complete() {
    this.isComplete = !0, this.onComplete(this.unresolvedKeyframes, this.finalKeyframe), L.delete(this);
  }
  cancel() {
    this.isComplete || (this.isScheduled = !1, L.delete(this));
  }
  resume() {
    this.isComplete || this.scheduleResolve();
  }
}
const un = (t) => /^-?(?:\d+(?:\.\d+)?|\.\d+)$/u.test(t), Qs = (
  // eslint-disable-next-line redos-detector/no-unsafe-regex -- false positive, as it can match a lot of words
  /^var\(--(?:([\w-]+)|([\w-]+), ?([a-zA-Z\d ()%#.,-]+))\)/u
);
function ei(t) {
  const e = Qs.exec(t);
  if (!e)
    return [,];
  const [, n, s, i] = e;
  return [`--${n ?? s}`, i];
}
const ti = 4;
function cn(t, e, n = 1) {
  Z(n <= ti, `Max CSS variable fallback depth detected in property "${t}". This may indicate a circular fallback dependency.`);
  const [s, i] = ei(t);
  if (!s)
    return;
  const r = window.getComputedStyle(e).getPropertyValue(s);
  if (r) {
    const o = r.trim();
    return un(o) ? parseFloat(o) : o;
  }
  return Be(i) ? cn(i, e, n + 1) : i;
}
const hn = (t) => (e) => e.test(t), ni = {
  test: (t) => t === "auto",
  parse: (t) => t
}, dn = [Ne, Dt, be, In, On, Rn, ni], ht = (t) => dn.find(hn(t));
class fn extends ze {
  constructor(e, n, s, i, r) {
    super(e, n, s, i, r, !0);
  }
  readKeyframes() {
    const { unresolvedKeyframes: e, element: n, name: s } = this;
    if (!n || !n.current)
      return;
    super.readKeyframes();
    for (let l = 0; l < e.length; l++) {
      let u = e[l];
      if (typeof u == "string" && (u = u.trim(), Be(u))) {
        const c = cn(u, n.current);
        c !== void 0 && (e[l] = c), l === e.length - 1 && (this.finalKeyframe = u);
      }
    }
    if (this.resolveNoneKeyframes(), !jt.has(s) || e.length !== 2)
      return;
    const [i, r] = e, o = ht(i), a = ht(r);
    if (o !== a)
      if (ct(o) && ct(a))
        for (let l = 0; l < e.length; l++) {
          const u = e[l];
          typeof u == "string" && (e[l] = parseFloat(u));
        }
      else
        this.needsMeasurement = !0;
  }
  resolveNoneKeyframes() {
    const { unresolvedKeyframes: e, name: n } = this, s = [];
    for (let i = 0; i < e.length; i++)
      Ps(e[i]) && s.push(i);
    s.length && js(e, s, n);
  }
  measureInitialState() {
    const { element: e, unresolvedKeyframes: n, name: s } = this;
    if (!e || !e.current)
      return;
    s === "height" && (this.suspendedScrollY = window.pageYOffset), this.measuredOrigin = $[s](e.measureViewportBox(), window.getComputedStyle(e.current)), n[0] = this.measuredOrigin;
    const i = n[n.length - 1];
    i !== void 0 && e.getValue(s, i).jump(i, !1);
  }
  measureEndState() {
    var e;
    const { element: n, name: s, unresolvedKeyframes: i } = this;
    if (!n || !n.current)
      return;
    const r = n.getValue(s);
    r && r.jump(this.measuredOrigin, !1);
    const o = i.length - 1, a = i[o];
    i[o] = $[s](n.measureViewportBox(), window.getComputedStyle(n.current)), a !== null && this.finalKeyframe === void 0 && (this.finalKeyframe = a), !((e = this.removedTransforms) === null || e === void 0) && e.length && this.removedTransforms.forEach(([l, u]) => {
      n.getValue(l).set(u);
    }), this.resolveNoneKeyframes();
  }
}
const dt = (t, e) => e === "zIndex" ? !1 : !!(typeof t == "number" || Array.isArray(t) || typeof t == "string" && // It's animatable if we have a string
(j.test(t) || t === "0") && // And it contains numbers and/or colors
!t.startsWith("url("));
function si(t) {
  const e = t[0];
  if (t.length === 1)
    return !0;
  for (let n = 0; n < t.length; n++)
    if (t[n] !== e)
      return !0;
}
function ii(t, e, n, s) {
  const i = t[0];
  if (i === null)
    return !1;
  if (e === "display" || e === "visibility")
    return !0;
  const r = t[t.length - 1], o = dt(i, e), a = dt(r, e);
  return ae(o === a, `You are trying to animate ${e} from "${i}" to "${r}". ${i} is not an animatable value - to enable this animation set ${i} to a value animatable to ${r} via the \`style\` property.`), !o || !a ? !1 : si(t) || (n === "spring" || _e(n)) && s;
}
const ri = (t) => t !== null;
function ue(t, { repeat: e, repeatType: n = "loop" }, s) {
  const i = t.filter(ri), r = e && n !== "loop" && e % 2 === 1 ? 0 : i.length - 1;
  return !r || s === void 0 ? i[r] : s;
}
const oi = 40;
class pn {
  constructor({ autoplay: e = !0, delay: n = 0, type: s = "keyframes", repeat: i = 0, repeatDelay: r = 0, repeatType: o = "loop", ...a }) {
    this.isStopped = !1, this.hasAttemptedResolve = !1, this.createdAt = K.now(), this.options = {
      autoplay: e,
      delay: n,
      type: s,
      repeat: i,
      repeatDelay: r,
      repeatType: o,
      ...a
    }, this.updateFinishedPromise();
  }
  /**
   * This method uses the createdAt and resolvedAt to calculate the
   * animation startTime. *Ideally*, we would use the createdAt time as t=0
   * as the following frame would then be the first frame of the animation in
   * progress, which would feel snappier.
   *
   * However, if there's a delay (main thread work) between the creation of
   * the animation and the first commited frame, we prefer to use resolvedAt
   * to avoid a sudden jump into the animation.
   */
  calcStartTime() {
    return this.resolvedAt ? this.resolvedAt - this.createdAt > oi ? this.resolvedAt : this.createdAt : this.createdAt;
  }
  /**
   * A getter for resolved data. If keyframes are not yet resolved, accessing
   * this.resolved will synchronously flush all pending keyframe resolvers.
   * This is a deoptimisation, but at its worst still batches read/writes.
   */
  get resolved() {
    return !this._resolved && !this.hasAttemptedResolve && Js(), this._resolved;
  }
  /**
   * A method to be called when the keyframes resolver completes. This method
   * will check if its possible to run the animation and, if not, skip it.
   * Otherwise, it will call initPlayback on the implementing class.
   */
  onKeyframesResolved(e, n) {
    this.resolvedAt = K.now(), this.hasAttemptedResolve = !0;
    const { name: s, type: i, velocity: r, delay: o, onComplete: a, onUpdate: l, isGenerator: u } = this.options;
    if (!u && !ii(e, s, i, r))
      if (o)
        this.options.duration = 0;
      else {
        l && l(ue(e, this.options, n)), a && a(), this.resolveFinishedPromise();
        return;
      }
    const c = this.initPlayback(e, n);
    c !== !1 && (this._resolved = {
      keyframes: e,
      finalKeyframe: n,
      ...c
    }, this.onPostResolved());
  }
  onPostResolved() {
  }
  /**
   * Allows the returned animation to be awaited or promise-chained. Currently
   * resolves when the animation finishes at all but in a future update could/should
   * reject if its cancels.
   */
  then(e, n) {
    return this.currentFinishedPromise.then(e, n);
  }
  flatten() {
    this.options.allowFlatten && (this.options.type = "keyframes", this.options.ease = "linear");
  }
  updateFinishedPromise() {
    this.currentFinishedPromise = new Promise((e) => {
      this.resolveFinishedPromise = e;
    });
  }
}
const ce = (t, e, n) => t + (e - t) * n;
function ge(t, e, n) {
  return n < 0 && (n += 1), n > 1 && (n -= 1), n < 1 / 6 ? t + (e - t) * 6 * n : n < 1 / 2 ? e : n < 2 / 3 ? t + (e - t) * (2 / 3 - n) * 6 : t;
}
function ai({ hue: t, saturation: e, lightness: n, alpha: s }) {
  t /= 360, e /= 100, n /= 100;
  let i = 0, r = 0, o = 0;
  if (!e)
    i = r = o = n;
  else {
    const a = n < 0.5 ? n * (1 + e) : n + e - n * e, l = 2 * n - a;
    i = ge(l, a, t + 1 / 3), r = ge(l, a, t), o = ge(l, a, t - 1 / 3);
  }
  return {
    red: Math.round(i * 255),
    green: Math.round(r * 255),
    blue: Math.round(o * 255),
    alpha: s
  };
}
function re(t, e) {
  return (n) => n > 0 ? e : t;
}
const ye = (t, e, n) => {
  const s = t * t, i = n * (e * e - s) + s;
  return i < 0 ? 0 : Math.sqrt(i);
}, li = [Se, B, U], ui = (t) => li.find((e) => e.test(t));
function ft(t) {
  const e = ui(t);
  if (ae(!!e, `'${t}' is not an animatable color. Use the equivalent color code instead.`), !e)
    return !1;
  let n = e.parse(t);
  return e === U && (n = ai(n)), n;
}
const pt = (t, e) => {
  const n = ft(t), s = ft(e);
  if (!n || !s)
    return re(t, e);
  const i = { ...n };
  return (r) => (i.red = ye(n.red, s.red, r), i.green = ye(n.green, s.green, r), i.blue = ye(n.blue, s.blue, r), i.alpha = ce(n.alpha, s.alpha, r), B.transform(i));
}, ci = (t, e) => (n) => e(t(n)), he = (...t) => t.reduce(ci), De = /* @__PURE__ */ new Set(["none", "hidden"]);
function hi(t, e) {
  return De.has(t) ? (n) => n <= 0 ? t : e : (n) => n >= 1 ? e : t;
}
function di(t, e) {
  return (n) => ce(t, e, n);
}
function He(t) {
  return typeof t == "number" ? di : typeof t == "string" ? Be(t) ? re : x.test(t) ? pt : mi : Array.isArray(t) ? mn : typeof t == "object" ? x.test(t) ? pt : fi : re;
}
function mn(t, e) {
  const n = [...t], s = n.length, i = t.map((r, o) => He(r)(r, e[o]));
  return (r) => {
    for (let o = 0; o < s; o++)
      n[o] = i[o](r);
    return n;
  };
}
function fi(t, e) {
  const n = { ...t, ...e }, s = {};
  for (const i in n)
    t[i] !== void 0 && e[i] !== void 0 && (s[i] = He(t[i])(t[i], e[i]));
  return (i) => {
    for (const r in s)
      n[r] = s[r](i);
    return n;
  };
}
function pi(t, e) {
  var n;
  const s = [], i = { color: 0, var: 0, number: 0 };
  for (let r = 0; r < e.values.length; r++) {
    const o = e.types[r], a = t.indexes[o][i[o]], l = (n = t.values[a]) !== null && n !== void 0 ? n : 0;
    s[r] = l, i[o]++;
  }
  return s;
}
const mi = (t, e) => {
  const n = j.createTransformer(e), s = Q(t), i = Q(e);
  return s.indexes.var.length === i.indexes.var.length && s.indexes.color.length === i.indexes.color.length && s.indexes.number.length >= i.indexes.number.length ? De.has(t) && !i.values.length || De.has(e) && !s.values.length ? hi(t, e) : he(mn(pi(s, i), i.values), n) : (ae(!0, `Complex values '${t}' and '${e}' too different to mix. Ensure all colors are of the same type, and that each contains the same quantity of number and color values. Falling back to instant transition.`), re(t, e));
};
function gn(t, e, n) {
  return typeof t == "number" && typeof e == "number" && typeof n == "number" ? ce(t, e, n) : He(t)(t, e);
}
const gi = 5;
function yn(t, e, n) {
  const s = Math.max(e - gi, 0);
  return Nt(n - t(s), e - s);
}
const S = {
  // Default spring physics
  stiffness: 100,
  damping: 10,
  mass: 1,
  velocity: 0,
  // Default duration/bounce-based options
  duration: 800,
  // in ms
  bounce: 0.3,
  visualDuration: 0.3,
  // in seconds
  // Rest thresholds
  restSpeed: {
    granular: 0.01,
    default: 2
  },
  restDelta: {
    granular: 5e-3,
    default: 0.5
  },
  // Limits
  minDuration: 0.01,
  // in seconds
  maxDuration: 10,
  // in seconds
  minDamping: 0.05,
  maxDamping: 1
}, mt = 1e-3;
function yi({ duration: t = S.duration, bounce: e = S.bounce, velocity: n = S.velocity, mass: s = S.mass }) {
  let i, r;
  ae(t <= /* @__PURE__ */ I(S.maxDuration), "Spring duration must be 10 seconds or less");
  let o = 1 - e;
  o = G(S.minDamping, S.maxDamping, o), t = G(S.minDuration, S.maxDuration, /* @__PURE__ */ R(t)), o < 1 ? (i = (u) => {
    const c = u * o, h = c * t, d = c - n, f = Ee(u, o), b = Math.exp(-h);
    return mt - d / f * b;
  }, r = (u) => {
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      damping: o * 2 * Math.sqrt(s * u),
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    };
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}
const vi = 12;
function bi(t, e, n) {
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    s = s - t(s) / e(s);
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}
function Ee(t, e) {
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}
const Ti = ["duration", "bounce"], Vi = ["stiffness", "damping", "mass"];
function gt(t, e) {
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}
function Ai(t) {
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    velocity: S.velocity,
    stiffness: S.stiffness,
    damping: S.damping,
    mass: S.mass,
    isResolvedFromDuration: !1,
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  };
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      e = {
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        mass: S.mass,
        stiffness: i,
        damping: r
      };
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      e = {
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        mass: S.mass
      }, e.isResolvedFromDuration = !0;
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}
function vn(t = S.visualDuration, e = S.bounce) {
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    visualDuration: t,
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    bounce: e
  } : t;
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    ...n,
    velocity: -/* @__PURE__ */ R(n.velocity || 0)
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    };
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    },
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      const g = Math.min(kt(C), Ve), A = Lt((w) => C.next(g * w).value, g, 30);
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  };
  return C;
}
function yt({ keyframes: t, velocity: e = 0, power: n = 0.8, timeConstant: s = 325, bounceDamping: i = 10, bounceStiffness: r = 500, modifyTarget: o, min: a, max: l, restDelta: u = 0.5, restSpeed: c }) {
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    done: !1,
    value: h
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  let v = n * e;
  const y = h + v, p = o === void 0 ? y : o(y);
  p !== y && (v = p - h);
  const T = (m) => -v * Math.exp(-m / s), V = (m) => p + T(m), C = (m) => {
    const P = T(m), F = V(m);
    d.done = Math.abs(P) <= u, d.value = d.done ? p : F;
  };
  let g, A;
  const w = (m) => {
    f(d.value) && (g = m, A = vn({
      keyframes: [d.value, b(d.value)],
      velocity: yn(V, m, d.value),
      // TODO: This should be passing * 1000
      damping: i,
      stiffness: r,
      restDelta: u,
      restSpeed: c
    }));
  };
  return w(0), {
    calculatedDuration: null,
    next: (m) => {
      let P = !1;
      return !A && g === void 0 && (P = !0, C(m), w(m)), g !== void 0 && m >= g ? A.next(m - g) : (!P && C(m), d);
    }
  };
}
const Si = /* @__PURE__ */ ee(0.42, 0, 1, 1), wi = /* @__PURE__ */ ee(0, 0, 0.58, 1), bn = /* @__PURE__ */ ee(0.42, 0, 0.58, 1), xi = (t) => Array.isArray(t) && typeof t[0] != "number", vt = {
  linear: X,
  easeIn: Si,
  easeInOut: bn,
  easeOut: wi,
  circIn: $e,
  circInOut: Zt,
  circOut: Ms,
  backIn: Ge,
  backInOut: Yt,
  backOut: Wt,
  anticipate: Xt
}, bt = (t) => {
  if (Ue(t)) {
    Z(t.length === 4, "Cubic bezier arrays must contain four numerical values.");
    const [e, n, s, i] = t;
    return ee(e, n, s, i);
  } else if (typeof t == "string")
    return Z(vt[t] !== void 0, `Invalid easing type '${t}'`), vt[t];
  return t;
};
function Mi(t, e, n) {
  const s = [], i = n || gn, r = t.length - 1;
  for (let o = 0; o < r; o++) {
    let a = i(t[o], t[o + 1]);
    if (e) {
      const l = Array.isArray(e) ? e[o] || X : e;
      a = he(l, a);
    }
    s.push(a);
  }
  return s;
}
function Pi(t, e, { clamp: n = !0, ease: s, mixer: i } = {}) {
  const r = t.length;
  if (Z(r === e.length, "Both input and output ranges must be the same length"), r === 1)
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  if (r === 2 && e[0] === e[1])
    return () => e[1];
  const o = t[0] === t[1];
  t[0] > t[r - 1] && (t = [...t].reverse(), e = [...e].reverse());
  const a = Mi(e, s, i), l = a.length, u = (c) => {
    if (o && c < t[0])
      return e[0];
    let h = 0;
    if (l > 1)
      for (; h < t.length - 2 && !(c < t[h + 1]); h++)
        ;
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    return a[h](d);
  };
  return n ? (c) => u(G(t[0], t[r - 1], c)) : u;
}
function Ci(t, e) {
  const n = t[t.length - 1];
  for (let s = 1; s <= e; s++) {
    const i = /* @__PURE__ */ Le(0, e, s);
    t.push(ce(n, 1, i));
  }
}
function Fi(t) {
  const e = [0];
  return Ci(e, t.length - 1), e;
}
function Di(t, e) {
  return t.map((n) => n * e);
}
function Ei(t, e) {
  return t.map(() => e || bn).splice(0, t.length - 1);
}
function Y({ duration: t = 300, keyframes: e, times: n, ease: s = "easeInOut" }) {
  const i = xi(s) ? s.map(bt) : bt(s), r = {
    done: !1,
    value: e[0]
  }, o = Di(
    // Only use the provided offsets if they're the correct length
    // TODO Maybe we should warn here if there's a length mismatch
    n && n.length === e.length ? n : Fi(e),
    t
  ), a = Pi(o, e, {
    ease: Array.isArray(i) ? i : Ei(e, i)
  });
  return {
    calculatedDuration: t,
    next: (l) => (r.value = a(l), r.done = l >= t, r)
  };
}
const Ii = (t) => {
  const e = ({ timestamp: n }) => t(n);
  return {
    start: () => D.update(e, !0),
    stop: () => Te(e),
    /**
     * If we're processing this frame we can use the
     * framelocked timestamp to keep things in sync.
     */
    now: () => ne.isProcessing ? ne.timestamp : K.now()
  };
}, Oi = {
  decay: yt,
  inertia: yt,
  tween: Y,
  keyframes: Y,
  spring: vn
}, Ri = (t) => t / 100;
class We extends pn {
  constructor(e) {
    super(e), this.holdTime = null, this.cancelTime = null, this.currentTime = 0, this.playbackSpeed = 1, this.pendingPlayState = "running", this.startTime = null, this.state = "idle", this.stop = () => {
      if (this.resolver.cancel(), this.isStopped = !0, this.state === "idle")
        return;
      this.teardown();
      const { onStop: l } = this.options;
      l && l();
    };
    const { name: n, motionValue: s, element: i, keyframes: r } = this.options, o = (i == null ? void 0 : i.KeyframeResolver) || ze, a = (l, u) => this.onKeyframesResolved(l, u);
    this.resolver = new o(r, a, n, s, i), this.resolver.scheduleResolve();
  }
  flatten() {
    super.flatten(), this._resolved && Object.assign(this._resolved, this.initPlayback(this._resolved.keyframes));
  }
  initPlayback(e) {
    const { type: n = "keyframes", repeat: s = 0, repeatDelay: i = 0, repeatType: r, velocity: o = 0 } = this.options, a = _e(n) ? n : Oi[n] || Y;
    let l, u;
    process.env.NODE_ENV !== "production" && a !== Y && Z(e.length <= 2, `Only two keyframes currently supported with spring and inertia animations. Trying to animate ${e}`), a !== Y && typeof e[0] != "number" && (l = he(Ri, gn(e[0], e[1])), e = [0, 100]);
    const c = a({ ...this.options, keyframes: e });
    r === "mirror" && (u = a({
      ...this.options,
      keyframes: [...e].reverse(),
      velocity: -o
    })), c.calculatedDuration === null && (c.calculatedDuration = kt(c));
    const { calculatedDuration: h } = c, d = h + i, f = d * (s + 1) - i;
    return {
      generator: c,
      mirroredGenerator: u,
      mapPercentToKeyframes: l,
      calculatedDuration: h,
      resolvedDuration: d,
      totalDuration: f
    };
  }
  onPostResolved() {
    const { autoplay: e = !0 } = this.options;
    this.play(), this.pendingPlayState === "paused" || !e ? this.pause() : this.state = this.pendingPlayState;
  }
  tick(e, n = !1) {
    const { resolved: s } = this;
    if (!s) {
      const { keyframes: m } = this.options;
      return { done: !0, value: m[m.length - 1] };
    }
    const { finalKeyframe: i, generator: r, mirroredGenerator: o, mapPercentToKeyframes: a, keyframes: l, calculatedDuration: u, totalDuration: c, resolvedDuration: h } = s;
    if (this.startTime === null)
      return r.next(0);
    const { delay: d, repeat: f, repeatType: b, repeatDelay: v, onUpdate: y } = this.options;
    this.speed > 0 ? this.startTime = Math.min(this.startTime, e) : this.speed < 0 && (this.startTime = Math.min(e - c / this.speed, this.startTime)), n ? this.currentTime = e : this.holdTime !== null ? this.currentTime = this.holdTime : this.currentTime = Math.round(e - this.startTime) * this.speed;
    const p = this.currentTime - d * (this.speed >= 0 ? 1 : -1), T = this.speed >= 0 ? p < 0 : p > c;
    this.currentTime = Math.max(p, 0), this.state === "finished" && this.holdTime === null && (this.currentTime = c);
    let V = this.currentTime, C = r;
    if (f) {
      const m = Math.min(this.currentTime, c) / h;
      let P = Math.floor(m), F = m % 1;
      !F && m >= 1 && (F = 1), F === 1 && P--, P = Math.min(P, f + 1), !!(P % 2) && (b === "reverse" ? (F = 1 - F, v && (F -= v / h)) : b === "mirror" && (C = o)), V = G(0, 1, F) * h;
    }
    const g = T ? { done: !1, value: l[0] } : C.next(V);
    a && (g.value = a(g.value));
    let { done: A } = g;
    !T && u !== null && (A = this.speed >= 0 ? this.currentTime >= c : this.currentTime <= 0);
    const w = this.holdTime === null && (this.state === "finished" || this.state === "running" && A);
    return w && i !== void 0 && (g.value = ue(l, this.options, i)), y && y(g.value), w && this.finish(), g;
  }
  get duration() {
    const { resolved: e } = this;
    return e ? /* @__PURE__ */ R(e.calculatedDuration) : 0;
  }
  get time() {
    return /* @__PURE__ */ R(this.currentTime);
  }
  set time(e) {
    e = /* @__PURE__ */ I(e), this.currentTime = e, this.holdTime !== null || this.speed === 0 ? this.holdTime = e : this.driver && (this.startTime = this.driver.now() - e / this.speed);
  }
  get speed() {
    return this.playbackSpeed;
  }
  set speed(e) {
    const n = this.playbackSpeed !== e;
    this.playbackSpeed = e, n && (this.time = /* @__PURE__ */ R(this.currentTime));
  }
  play() {
    if (this.resolver.isScheduled || this.resolver.resume(), !this._resolved) {
      this.pendingPlayState = "running";
      return;
    }
    if (this.isStopped)
      return;
    const { driver: e = Ii, onPlay: n, startTime: s } = this.options;
    this.driver || (this.driver = e((r) => this.tick(r))), n && n();
    const i = this.driver.now();
    this.holdTime !== null ? this.startTime = i - this.holdTime : this.startTime ? this.state === "finished" && (this.startTime = i) : this.startTime = s ?? this.calcStartTime(), this.state === "finished" && this.updateFinishedPromise(), this.cancelTime = this.startTime, this.holdTime = null, this.state = "running", this.driver.start();
  }
  pause() {
    var e;
    if (!this._resolved) {
      this.pendingPlayState = "paused";
      return;
    }
    this.state = "paused", this.holdTime = (e = this.currentTime) !== null && e !== void 0 ? e : 0;
  }
  complete() {
    this.state !== "running" && this.play(), this.pendingPlayState = this.state = "finished", this.holdTime = null;
  }
  finish() {
    this.teardown(), this.state = "finished";
    const { onComplete: e } = this.options;
    e && e();
  }
  cancel() {
    this.cancelTime !== null && this.tick(this.cancelTime), this.teardown(), this.updateFinishedPromise();
  }
  teardown() {
    t