Considering (3) and (4) as a double-length predicate, with the upper bits in (4), set each predicate bit corresponding to a 64-bit elements, from low to high, while (1) + n ≤ (2), with n starting from zero and incrementing each bit. If a comparison fails, all higher predicate bits will also be set to zero.
(1), (2), and offsets computed from (1) are signed 64-bit integers.Considering (3) and (4) as a double-length predicate, with the upper bits in (4), set each predicate bit corresponding to a 64-bit elements, from low to high, while (1) + n ≤ (2), with n starting from zero and incrementing each bit. If a comparison fails, all higher predicate bits will also be set to zero.
(1), (2), and offsets computed from (1) are signed 64-bit integers.Considering (3) and (4) as a double-length predicate, with the upper bits in (4), set each predicate bit corresponding to a 64-bit elements, from low to high, while (1) + n ≤ (2), with n starting from zero and incrementing each bit. If a comparison fails, all higher predicate bits will also be set to zero.
(1), (2), and offsets computed from (1) are signed 64-bit integers.Considering (3) and (4) as a double-length predicate, with the upper bits in (4), set each predicate bit corresponding to a 64-bit elements, from low to high, while (1) + n ≤ (2), with n starting from zero and incrementing each bit. If a comparison fails, all higher predicate bits will also be set to zero.
(1), (2), and offsets computed from (1) are signed 64-bit integers.Considering (3) and (4) as a double-length predicate, with the upper bits in (4), set each predicate bit corresponding to a 64-bit elements, from low to high, while (1) + n ≤ (2), with n starting from zero and incrementing each bit. If a comparison fails, all higher predicate bits will also be set to zero.
(1), (2), and offsets computed from (1) are signed 64-bit integers.