Topic: bit-manipulation-problem / Level: intermediate

• 1901. Write a program that checks if a binary number can be expressed as a valid color in CMYK format.
• 1902. Implement a function that counts how many integers can be expressed as the sum of two distinct odd integers.
• 1903. Create a function that checks if a binary number has a valid representation of a date in the format YYYY-MM-DD.
• 1904. Write a program to find the longest contiguous block of 0s in the binary representation of any number in an array.
• 1905. Create a function that counts how many binary strings can be formed with an odd number of leading bits set to 1.
• 1906. Implement a function that checks if the binary representation of a number can be rearranged to form a valid hexadecimal string.
• 1907. Write a program that counts how many binary numbers can be formed with an odd number of trailing bits set to 1.
• 1908. Create a function that checks if two binary numbers can be made equal by flipping a specific number of bits.
• 1909. Implement a function that counts how many integers from 1 to n can be expressed as the sum of two squares.
• 1910. Write a program that checks if the binary representation of a number has a valid representation of a signed integer.
• 1911. Create a function that counts how many binary strings can be formed with an even number of bits set.
• 1912. Implement a function that checks if a binary number can be transformed into another by flipping an even number of bits.
• 1913. Write a program to check if a binary number has a valid representation of a positive integer in hexadecimal.
• 1914. Create a function that counts how many unique integers can be formed by permuting the bits of a binary number.
• 1915. Implement a function that checks if the binary representation of a number is valid for a specific encoding type.
• 1916. Write a program that finds the total number of bits in the binary representation of the sum of two distinct integers.
• 1917. Create a function that counts how many binary strings can be formed with an even number of leading bits set to 0.
• 1918. Implement a function that checks if the binary representation of a number has an even number of transitions.
• 1919. Write a program that counts how many integers in a range can be expressed as a sum of two distinct integers.
• 1920. Create a function that checks if the binary number can be expressed as a valid character in ASCII.
• 1921. Implement a function that counts how many binary representations can be formed by permuting the bits of a binary number.
• 1922. Write a program that checks if a binary number can be transformed into another by flipping an odd number of bits.
• 1923. Create a function that counts how many binary strings can be formed with an even number of trailing bits.
• 1924. Implement a function that checks if the binary representation of a number has a valid representation of a negative integer.
• 1925. Write a program to find the maximum integer with the same number of set bits as a given integer.
• 1926. Create a function that counts how many integers can be represented as the sum of two squares.
• 1927. Implement a function that checks if the binary representation of a number is valid for a specific format.
• 1928. Write a program that checks if two binary numbers can be made equal by flipping an even number of bits.
• 1929. Create a function that counts how many binary strings can be formed with an odd number of trailing bits.
• 1930. Implement a function that checks if a binary number has a valid representation of a character in UTF-16.
• 1931. Write a program to find the total number of bits in the binary representation of the product of two integers.
• 1932. Create a function that checks if two binary strings can be made equal by flipping a specific number of bits.
• 1933. Implement a function that counts how many integers can be represented using the bits of a binary number.
• 1934. Write a program that checks if the binary representation of a number has a valid representation of a character in UTF-8.
• 1935. Create a function that counts how many binary strings can be formed with an even number of trailing bits.
• 1936. Implement a function that checks if the binary representation of a number can be rearranged to form a valid decimal number.
• 1937. Write a program to determine if a binary number has a valid representation of a time in HH
• 1938. Create a function that counts how many integers from 1 to n can be expressed as the sum of two squares.
• 1939. Implement a function that checks if a binary number can be expressed as a valid hexadecimal number.
• 1940. Write a program to find the longest sequence of 1s in the binary representation of a number.
• 1941. Create a function that checks if a binary number can be expressed as a sum of two distinct even integers.
• 1942. Implement a function that counts how many binary strings can be formed with an odd number of trailing bits.
• 1943. Write a program that checks if a binary number has a valid representation of a negative integer.
• 1944. Create a function that counts how many integers from 1 to n can be expressed in binary with an odd number of bits set.
• 1945. Implement a function that checks if two binary strings can be made equal by flipping a specific number of bits.
• 1946. Write a program to count how many binary numbers can be formed with an even number of trailing bits.
• 1947. Create a function that checks if the binary representation of a number can be rearranged to form a valid character in ASCII.
• 1948. Implement a function that counts how many integers can be expressed as the sum of two distinct primes.
• 1949. Write a program that checks if a binary number has a valid representation of a character in UTF-8.
• 1950. Create a function to find the number of trailing bits in the binary representation of the product of two integers.

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