/** * Returns the length of the value's two's complement representation without * leading zeros for positive numbers / without leading ones for negative * values. * * <p>The two's complement representation of {@code this} will be at least * {@code bitLength() + 1} bits long. * * <p>The value will fit into an {@code int} if {@code bitLength() < 32} or * into a {@code long} if {@code bitLength() < 64}. * * @return the length of the minimal two's complement representation for * {@code this} without the sign bit. */ public int bitLength() { // Optimization to avoid unnecessary duplicate representation: if (!nativeIsValid && javaIsValid) { return BitLevel.bitLength(this); } return getBigInt().bitLength(); }
BigInt ni = n.getBigInt(); if (ni.bitLength() <= 10) { int l = (int)ni.longInt(); if (l < primes[primes.length - 1]) {
/** * Returns the length of the value's two's complement representation without * leading zeros for positive numbers / without leading ones for negative * values. * * <p>The two's complement representation of {@code this} will be at least * {@code bitLength() + 1} bits long. * * <p>The value will fit into an {@code int} if {@code bitLength() < 32} or * into a {@code long} if {@code bitLength() < 64}. * * @return the length of the minimal two's complement representation for * {@code this} without the sign bit. */ public int bitLength() { // Optimization to avoid unnecessary duplicate representation: if (!nativeIsValid && javaIsValid) { return BitLevel.bitLength(this); } return getBigInt().bitLength(); }
/** * Returns the length of the value's two's complement representation without * leading zeros for positive numbers / without leading ones for negative * values. * * <p>The two's complement representation of {@code this} will be at least * {@code bitLength() + 1} bits long. * * <p>The value will fit into an {@code int} if {@code bitLength() < 32} or * into a {@code long} if {@code bitLength() < 64}. * * @return the length of the minimal two's complement representation for * {@code this} without the sign bit. */ public int bitLength() { // Optimization to avoid unnecessary duplicate representation: if (!nativeIsValid && javaIsValid) { return BitLevel.bitLength(this); } return getBigInt().bitLength(); }
/** * Returns the length of the value's two's complement representation without * leading zeros for positive numbers / without leading ones for negative * values. * * <p>The two's complement representation of {@code this} will be at least * {@code bitLength() + 1} bits long. * * <p>The value will fit into an {@code int} if {@code bitLength() < 32} or * into a {@code long} if {@code bitLength() < 64}. * * @return the length of the minimal two's complement representation for * {@code this} without the sign bit. */ public int bitLength() { // Optimization to avoid unnecessary duplicate representation: if (!nativeIsValid && javaIsValid) { return BitLevel.bitLength(this); } return getBigInt().bitLength(); }
/** * Returns the length of the value's two's complement representation without * leading zeros for positive numbers / without leading ones for negative * values. * * <p>The two's complement representation of {@code this} will be at least * {@code bitLength() + 1} bits long. * * <p>The value will fit into an {@code int} if {@code bitLength() < 32} or * into a {@code long} if {@code bitLength() < 64}. * * @return the length of the minimal two's complement representation for * {@code this} without the sign bit. */ public int bitLength() { // Optimization to avoid unnecessary duplicate representation: if (!nativeIsValid && javaIsValid) { return BitLevel.bitLength(this); } return getBigInt().bitLength(); }
/** * Returns the length of the value's two's complement representation without * leading zeros for positive numbers / without leading ones for negative * values. * * <p>The two's complement representation of {@code this} will be at least * {@code bitLength() + 1} bits long. * * <p>The value will fit into an {@code int} if {@code bitLength() < 32} or * into a {@code long} if {@code bitLength() < 64}. * * @return the length of the minimal two's complement representation for * {@code this} without the sign bit. */ public int bitLength() { // Optimization to avoid unnecessary duplicate representation: if (!nativeIsValid && javaIsValid) { return BitLevel.bitLength(this); } return getBigInt().bitLength(); }
/** * Returns the length of the value's two's complement representation without * leading zeros for positive numbers / without leading ones for negative * values. * * <p>The two's complement representation of {@code this} will be at least * {@code bitLength() + 1} bits long. * * <p>The value will fit into an {@code int} if {@code bitLength() < 32} or * into a {@code long} if {@code bitLength() < 64}. * * @return the length of the minimal two's complement representation for * {@code this} without the sign bit. */ public int bitLength() { // Optimization to avoid unnecessary duplicate representation: if (!nativeIsValid && javaIsValid) { return BitLevel.bitLength(this); } return getBigInt().bitLength(); }
BigInt ni = n.getBigInt(); if (ni.bitLength() <= 10) { int l = (int)ni.longInt(); if (l < primes[primes.length - 1]) {
BigInt ni = n.getBigInt(); if (ni.bitLength() <= 10) { int l = (int)ni.longInt(); if (l < primes[primes.length - 1]) {
BigInt ni = n.getBigInt(); if (ni.bitLength() <= 10) { int l = (int)ni.longInt(); if (l < primes[primes.length - 1]) {
BigInt ni = n.getBigInt(); if (ni.bitLength() <= 10) { int l = (int)ni.longInt(); if (l < primes[primes.length - 1]) {
BigInt ni = n.getBigInt(); if (ni.bitLength() <= 10) { int l = (int)ni.longInt(); if (l < primes[primes.length - 1]) {
BigInt ni = n.getBigInt(); if (ni.bitLength() <= 10) { int l = (int)ni.longInt(); if (l < primes[primes.length - 1]) {