/** Constructs a new BigFraction from the given BigDecimal object. */
public BigFraction(BigDecimal d) {
this(
d.scale() < 0
? d.unscaledValue().multiply(BigInteger.TEN.pow(-d.scale()))
: d.unscaledValue(),
d.scale() < 0 ? BigInteger.ONE : BigInteger.TEN.pow(d.scale()));
}
/**
* Constructs a new BigFraction from two BigDecimals.
*
* @throws ArithemeticException if denominator == 0.
*/
private static BigFraction valueOfHelper(
final BigDecimal numerator, final BigDecimal denominator) {
// Note: Cannot use .equals(BigDecimal.ZERO), because "0.00" != "0.0".
if (denominator.unscaledValue().equals(BigInteger.ZERO)) {
throw new ArithmeticException("Divide by zero: fraction denominator is zero.");
}
// Format of BigDecimal: unscaled / 10^scale
BigInteger tmpNumerator = numerator.unscaledValue();
BigInteger tmpDenominator = denominator.unscaledValue();
// (u1/10^s1) / (u2/10^s2) = u1 / (u2 * 10^(s1-s2)) = (u1 * 10^(s2-s1))
// / u2
if (numerator.scale() > denominator.scale()) {
tmpDenominator =
tmpDenominator.multiply(BigInteger.TEN.pow(numerator.scale() - denominator.scale()));
} else if (numerator.scale() < denominator.scale()) {
tmpNumerator =
tmpNumerator.multiply(BigInteger.TEN.pow(denominator.scale() - numerator.scale()));
// else: scales are equal, do nothing.
}
final BigInteger gcd = tmpNumerator.gcd(tmpDenominator);
tmpNumerator = tmpNumerator.divide(gcd);
tmpDenominator = tmpDenominator.divide(gcd);
if (tmpDenominator.signum() < 0) {
tmpNumerator = tmpNumerator.negate();
tmpDenominator = tmpDenominator.negate();
}
return new BigFraction(tmpNumerator, tmpDenominator, Reduced.YES);
}
public static void main(String[] args) {
Scanner in = new Scanner(System.in);
int n = in.nextInt();
System.out.println(
(n == 1 ? BigInteger.ZERO : BigInteger.TEN.pow(n - 1))
.subtract(BigInteger.TEN.pow(in.nextInt()))
.abs()
.toString());
}
public static boolean check(long n, int p) {
BigInteger P = BigInteger.TEN.pow(p), Q = BigInteger.TEN.pow(p - 1);
BigInteger N = BigInteger.ONE, tmp = BigInteger.valueOf(2);
while (n > 0) {
if ((n % 2) == 1) {
N = N.multiply(tmp);
N = N.mod(P);
}
tmp = tmp.multiply(tmp);
tmp = tmp.mod(P);
n >>= 1;
}
N = N.divide(Q);
if (N.equals(BigInteger.ONE) || N.equals(BigInteger.valueOf(2))) return true;
else return false;
}
@GwtIncompatible // TODO
public void testLog10TrivialOnPowerOf10() {
BigInteger x = BigInteger.TEN.pow(100);
for (RoundingMode mode : ALL_ROUNDING_MODES) {
assertEquals(100, BigIntegerMath.log10(x, mode));
}
}
/** 将String以char形式读取，转换为BigInteger */
private static BigInteger toNumber(String string) {
BigInteger result = BigInteger.ZERO;
BigInteger temp = BigInteger.ZERO;
BigInteger thousand = BigInteger.TEN.multiply(BigInteger.TEN).multiply(BigInteger.TEN);
for (int i = 0; i < string.length(); i++) {
temp = BigInteger.valueOf((int) (string.charAt(i)));
result = result.multiply(thousand).add(temp);
}
return result;
}
/** 将BigInteger以char形式读取，转换为String */
private static String toString(BigInteger number) {
String result = "";
int lenth = number.toString().length();
BigInteger temp = BigInteger.ZERO;
BigInteger thousand = BigInteger.TEN.multiply(BigInteger.TEN).multiply(BigInteger.TEN);
for (int i = 0; i < lenth; i += 3) {
temp = number.mod(thousand);
number = number.divide(thousand);
result += (char) (Integer.parseInt(temp.toString()));
}
result = new StringBuffer(result).reverse().toString();
return result;
}
/** Constructs a new BigFraction from the given BigDecimal object. */
private static BigFraction valueOfHelper(final BigDecimal d) {
// BigDecimal format: unscaled / 10^scale.
BigInteger tmpNumerator = d.unscaledValue();
BigInteger tmpDenominator = BigInteger.ONE;
// Special case for d == 0 (math below won't work right)
// Note: Cannot use d.equals(BigDecimal.ZERO), because
// BigDecimal.equals()
// does not consider numbers equal if they have different scales. So,
// 0.00 is not equal to BigDecimal.ZERO.
if (tmpNumerator.equals(BigInteger.ZERO)) {
return BigFraction.ZERO;
}
if (d.scale() < 0) {
tmpNumerator = tmpNumerator.multiply(BigInteger.TEN.pow(-d.scale()));
} else if (d.scale() > 0) {
// Now we have the form: unscaled / 10^scale = unscaled / (2^scale *
// 5^scale)
// We know then that gcd(unscaled, 2^scale * 5^scale) = 2^commonTwos
// * 5^commonFives
// Easy to determine commonTwos
final int commonTwos = Math.min(d.scale(), tmpNumerator.getLowestSetBit());
tmpNumerator = tmpNumerator.shiftRight(commonTwos);
tmpDenominator = tmpDenominator.shiftLeft(d.scale() - commonTwos);
// Determining commonFives is a little trickier..
int commonFives = 0;
BigInteger[] divMod = null;
// while(commonFives < d.scale() && tmpNumerator % 5 == 0) {
// tmpNumerator /= 5; commonFives++; }
while (commonFives < d.scale()
&& BigInteger.ZERO.equals((divMod = tmpNumerator.divideAndRemainder(BIGINT_FIVE))[1])) {
tmpNumerator = divMod[0];
commonFives++;
}
if (commonFives < d.scale()) {
tmpDenominator = tmpDenominator.multiply(BIGINT_FIVE.pow(d.scale() - commonFives));
}
}
// else: d.scale() == 0: do nothing
// Guaranteed there is no gcd, so fraction is in lowest terms
return new BigFraction(tmpNumerator, tmpDenominator, Reduced.YES);
}
public static void main(String[] args) {
Scanner in = new Scanner(System.in);
n = in.nextInt();
l = new BigInteger(in.next());
k = in.nextInt();
m = in.nextInt();
BigInteger w = BigInteger.TEN.pow(m);
for (int i = 0; i <= n; ++i) a[i] = new BigInteger(in.next());
for (int i = 0; i < Math.min(k, n + 1); ++i) {
t = a[0];
for (int j = 1; j <= n; ++j) {
t = t.multiply(l);
t = t.add(a[j]);
}
t = t.mod(w);
q[n][i] = t.mod(w);
int ret = 0;
c = t.toString().toCharArray();
int ll = c.length;
for (int j = 0; j < Math.min(m, ll); ++j) {
ret += (c[ll - 1 - j] - '0') * (c[ll - 1 - j] - '0');
}
System.out.println(ret);
l = l.add(BigInteger.ONE);
}
if (k > n) {
for (int i = n - 1; i >= 0; --i) {
for (int j = 0; j <= i; j++) q[i][j] = q[i + 1][j + 1].subtract(q[i + 1][j]).mod(w);
}
for (int i = 1; i <= n; ++i) q[0][i] = q[0][0];
int po = 1;
for (int i = n + 1; i < k; ++i) {
for (int j = 1; j <= n; ++j)
q[j][(po + j) % (n + 1)] =
q[j - 1][(po + j - 1) % (n + 1)].add(q[j][(po + j - 1) % (n + 1)]).mod(w);
int ret = 0;
c = q[n][(po + n) % (n + 1)].mod(w).toString().toCharArray();
int ll = c.length;
for (int j = 0; j < Math.min(m, ll); ++j) {
ret += (c[ll - 1 - j] - '0') * (c[ll - 1 - j] - '0');
}
System.out.println(ret);
l = l.add(BigInteger.ONE);
++po;
}
}
}
public static SMTAffineTerm create(Rational factor, Term subterm) {
Sort sort = subterm.getSort();
Map<Term, Rational> summands;
Rational constant;
if (factor.equals(Rational.ZERO)) {
summands = Collections.emptyMap();
constant = Rational.ZERO;
} else if (subterm instanceof SMTAffineTerm) {
SMTAffineTerm a = (SMTAffineTerm) subterm;
constant = a.mConstant.mul(factor);
summands = new HashMap<Term, Rational>();
for (Map.Entry<Term, Rational> me : a.mSummands.entrySet()) {
summands.put(me.getKey(), me.getValue().mul(factor));
}
} else if (subterm instanceof ConstantTerm) {
Object value = ((ConstantTerm) subterm).getValue();
if (value instanceof BigInteger) {
constant = Rational.valueOf((BigInteger) value, BigInteger.ONE).mul(factor);
summands = Collections.emptyMap();
} else if (value instanceof BigDecimal) {
BigDecimal decimal = (BigDecimal) value;
if (decimal.scale() <= 0) {
BigInteger num = decimal.toBigInteger();
constant = Rational.valueOf(num, BigInteger.ONE).mul(factor);
} else {
BigInteger num = decimal.unscaledValue();
BigInteger denom = BigInteger.TEN.pow(decimal.scale());
constant = Rational.valueOf(num, denom).mul(factor);
}
summands = Collections.emptyMap();
} else if (value instanceof Rational) {
constant = (Rational) value;
summands = Collections.emptyMap();
} else {
summands = Collections.singletonMap(subterm, factor);
constant = Rational.ZERO;
}
} else {
summands = Collections.singletonMap(subterm, factor);
constant = Rational.ZERO;
}
return create(summands, constant, sort);
}
@Override
protected void convert(Term term) {
if (term instanceof ConstantTerm) {
ConstantTerm ct = (ConstantTerm) term;
if (ct.getValue() instanceof BigInteger) {
Rational rat = Rational.valueOf((BigInteger) ct.getValue(), BigInteger.ONE);
setResult(rat.toTerm(term.getSort()));
} else if (ct.getValue() instanceof BigDecimal) {
BigDecimal decimal = (BigDecimal) ct.getValue();
Rational rat;
if (decimal.scale() <= 0) {
BigInteger num = decimal.toBigInteger();
rat = Rational.valueOf(num, BigInteger.ONE);
} else {
BigInteger num = decimal.unscaledValue();
BigInteger denom = BigInteger.TEN.pow(decimal.scale());
rat = Rational.valueOf(num, denom);
}
setResult(rat.toTerm(term.getSort()));
} else if (ct.getValue() instanceof Rational) setResult(ct);
else setResult(term);
} else super.convert(term);
}
@Test
public void testParseBigInt() throws ParseException {
assertEquals(BigInteger.TEN, EwsUtilities.parse(BigInteger.class, BigInteger.TEN.toString()));
}
/**
* Returns the base-10 logarithm of {@code x}, rounded according to the specified rounding mode.
*
* @throws IllegalArgumentException if {@code x <= 0}
* @throws ArithmeticException if {@code mode} is {@link RoundingMode#UNNECESSARY} and {@code x}
* is not a power of ten
*/
@GwtIncompatible // TODO
@SuppressWarnings("fallthrough")
public static int log10(BigInteger x, RoundingMode mode) {
checkPositive("x", x);
if (fitsInLong(x)) {
return LongMath.log10(x.longValue(), mode);
}
int approxLog10 = (int) (log2(x, FLOOR) * LN_2 / LN_10);
BigInteger approxPow = BigInteger.TEN.pow(approxLog10);
int approxCmp = approxPow.compareTo(x);
/*
* We adjust approxLog10 and approxPow until they're equal to floor(log10(x)) and
* 10^floor(log10(x)).
*/
if (approxCmp > 0) {
/*
* The code is written so that even completely incorrect approximations will still yield the
* correct answer eventually, but in practice this branch should almost never be entered, and
* even then the loop should not run more than once.
*/
do {
approxLog10--;
approxPow = approxPow.divide(BigInteger.TEN);
approxCmp = approxPow.compareTo(x);
} while (approxCmp > 0);
} else {
BigInteger nextPow = BigInteger.TEN.multiply(approxPow);
int nextCmp = nextPow.compareTo(x);
while (nextCmp <= 0) {
approxLog10++;
approxPow = nextPow;
approxCmp = nextCmp;
nextPow = BigInteger.TEN.multiply(approxPow);
nextCmp = nextPow.compareTo(x);
}
}
int floorLog = approxLog10;
BigInteger floorPow = approxPow;
int floorCmp = approxCmp;
switch (mode) {
case UNNECESSARY:
checkRoundingUnnecessary(floorCmp == 0);
// fall through
case FLOOR:
case DOWN:
return floorLog;
case CEILING:
case UP:
return floorPow.equals(x) ? floorLog : floorLog + 1;
case HALF_DOWN:
case HALF_UP:
case HALF_EVEN:
// Since sqrt(10) is irrational, log10(x) - floorLog can never be exactly 0.5
BigInteger x2 = x.pow(2);
BigInteger halfPowerSquared = floorPow.pow(2).multiply(BigInteger.TEN);
return (x2.compareTo(halfPowerSquared) <= 0) ? floorLog : floorLog + 1;
default:
throw new AssertionError();
}
}