The abs(<numeric type>) function takes one argument of any numeric data type and returns its absolute value.

The bit_and(<numeric type>, <numeric type>) function accepts two arguments of any numeric data type. It takes integer parts of both arguments and returns the number corresponding to the bitwise and. (For example, bit_and(11,7) returns 3.) As decimal 11 can be expressed as bitwise 1011, decimal 7 can be expressed as 111, thus the result is 11 what corresponds to decimal 3. Return data type is long, but if it is sent to other numeric data type, it is expressed in its numeric representation.

The bit_invert(<numeric type>) function accepts one argument of any numeric data type. It takes its integer part and returns the number corresponding to its bitwise inverted number. (For example, bit_invert(11) returns -12.) The function inverts all bits in an argument. Return data type is long, but if it is sent to other numeric data type, it is expressed in its numeric representation.

The bit_is_set(<numeric type>, <numeric type>) function accepts two arguments of any numeric data type. It takes integer parts of both arguments, determines the value of the bit of the first argument located on the Index and returns true or false, if the bit is 1 or 0, respectively. (For example, bit_is_set(11,3) returns true.) As decimal 11 can be expressed as bitwise 1011, the bit whose index is 3 (the fourth from the right) is 1, thus the result is true. And bit_is_set(11,2) would return false.

The bit_lshift(<numeric type>, <numeric type>) function accepts two arguments of any numeric data type. It takes integer parts of both arguments and returns the number corresponding to the original number with some bits added (Shift number of bits on the left side are added and set to 0.) (For example, bit_lshift(11,2) returns 44.) As decimal 11 can be expressed as bitwise 1011, thus the two bits on the right side (10) are added and the result is 101100 which corresponds to decimal 44. Return data type is long, but if it is sent to other numeric data type, it is expressed in its numeric data type.

The bit_or(<numeric type>, <numeric type>) function accepts two arguments of any numeric data type. It takes integer parts of both arguments and returns the number corresponding to the bitwise or. (For example, bit_or(11,7) returns 15.) As decimal 11 can be expressed as bitwise 1011, decimal 7 can be expressed as 111, thus the result is 1111 what corresponds to decimal 15. Return data type is long, but if it is sent to other numeric data type, it is expressed in its numeric data type.

The bit_rshift(<numeric type>, <numeric type>) function accepts two arguments of any numeric data type. It takes integer parts of both arguments and returns the number corresponding to the original number with some bits removed (Shift number of bits on the right side are removed.) (For example, bit_rshift(11,2) returns 2.) As decimal 11 can be expressed as bitwise 1011, thus the two bits on the right side are removed and the result is 10 what corresponds to decimal 2. Return data type is long, but if it is sent to other numeric data type, it is expressed in its numeric data type.

The bit_set(<numeric type>, <numeric type>, boolean) function accepts three arguments. The first two are of any numeric data type and the third is boolean. It takes integer parts of the first two arguments, sets the value of the bit of the first argument located on the Index specified as the second argument to 1 or 0, if the third argument is true or false, respectively, and returns the result as a long value. (For example, bit_set(11,3,false) returns 3.) As decimal 11 can be expressed as bitwise 1011, the bit whose index is 3 (the fourth from the right) is set to 0, thus the result is 11 what corresponds to decimal 3. And bit_set(11,2,true) would return 1111 what corresponds to decimal 15. Return data type is long, but if it is sent to other numeric data type, it is expressed in its numeric data type.

The bit_xor(<numeric type>, <numeric type>) function accepts two arguments of any numeric data type. It takes integer parts of both arguments and returns the number corresponding to the bitwise exclusive or. (For example, bit_or(11,7) returns 12.) As decimal 11 can be expressed as bitwise 1011, decimal 7 can be expressed as 111, thus the result is 1100 what corresponds to decimal 15. Return data type is long, but if it is sent to other numeric data type, it is expressed in its numeric data type.

The e() function accepts no argument and returns the Euler number.

The exp(<numeric type>) function takes one argument of any numeric data type and returns the result of the exponential function of this argument.

The log(<numeric type>) takes one argument of any numeric data type and returns the result of the natural logarithm of this argument.

The log10(<numeric type>) function takes one argument of any numeric data type and returns the result of the logarithm of this argument to the base 10.

The pi() function accepts no argument and returns the pi number.

The pow(<numeric type>, <numeric type>) function takes two arguments of any numeric data types (that do not need to be the same) and returns the exponential function of the first argument as the exponent with the second as the base.

The random() function accepts no argument and returns a random positive double greater than or equal to 0.0 and less than 1.0.

The random(long) function accepts one argument of long data type and returns a random positive double greater than or equal to 0.0 and less than 1.0. The argument ensures that the generated values remain the same upon each run of the graph. The generated values can only be changed by changing the randomSeed value.

The random_boolean() function accepts no argument and generates at random boolean values true or false. If these values are sent to any numeric data type field, they are converted to their numeric representation automatically (1 or 0, respectively).

The random_boolean(long) function accepts one argument of long data type and generates at random boolean values true or false. If these values are sent to any numeric data type field, they are converted to their numeric representation automatically (1 or 0, respectively). The argument ensures that the generated values remain the same upon each run of the graph. The generated values can only be changed by changing the randomSeed value.

The random_gaussian() function accepts no argument and generates at random both positive and negative values of return numeric data type in a Gaussian distribution.

The random_gaussian(long) function accepts one argument of long data type and generates at random both positive and negative values of return numeric data type in a Gaussian distribution. The argument ensures that the generated values remain the same upon each run of the graph. The generated values can only be changed by changing the randomSeed value.

The random_int() function accepts no argument and generates at random both positive and negative integer values.

The random_int(long) function accepts one argument of long data type and generates at random both positive and negative integer values. The argument ensures that the generated values remain the same upon each run of the graph. The generated values can only be changed by changing the randomSeed value.

The random_int(int, int) function accepts two argument of integer data types and returns a random integer value greater than or equal to Minimum and less than or equal to Maximum.

The random_int(int, int, long) function accepts three arguments. The first two are of integer data types and the third is long. The function takes them and returns a random integer value greater than or equal to Minimum and less than or equal to Maximum. The third argument ensures that the generated values remain the same upon each run of the graph. The generated values can only be changed by changing the randomSeed value.

The random_long() function accepts no argument and generates at random both positive and negative long values.

The random_long(long) function accepts one argument of long data type and generates at random both positive and negative long values. The argument ensures that the generated values remain the same upon each run of the graph. The generated values can only be changed by changing the randomSeed value.

The random_long(long, long) function accepts two argument of long data types and returns a random long value greater than or equal to Minimum and less than or equal to Maximum.

The random_long(long, long, long) function accepts three arguments of long data types and returns a random long value greater than or equal to Minimum and less than or equal to Maximum. The argument ensures that the generated values remain the same upon each run of the graph. The generated values can only be changed by changing the randomSeed value.

The round(<numeric type>) function takes one argument of any numeric data type and returns the long that is closest to this argument.

The sqrt(<numeric type>) function takes one argument of any numeric data type and returns the square root of this argument.