Integer built-in type. Signed 64-bit integer type. It can take values in the interval [code][-2^63, 2^63 - 1][/code], i.e. [code][-9223372036854775808, 9223372036854775807][/code]. Exceeding those bounds will wrap around. [int] is a [Variant] type, and will thus be used when assigning an integer value to a [Variant]. It can also be enforced with the [code]: int[/code] type hint. [codeblocks] [gdscript] var my_variant = 0 # int, value 0. my_variant += 4.2 # float, value 4.2. var my_int: int = 1 # int, value 1. my_int = 4.2 # int, value 4, the right value is implicitly cast to int. my_int = int("6.7") # int, value 6, the String is explicitly cast with int. var max_int = 9223372036854775807 print(max_int) # 9223372036854775807, OK. max_int += 1 print(max_int) # -9223372036854775808, we overflowed and wrapped around. [/gdscript] [csharp] int myInt = (int)"6.7".ToFloat(); // int, value 6, the String is explicitly cast with int. // We have to use `long` here, because GDSript's `int` // is 64 bits long while C#'s `int` is only 32 bits. long maxInt = 9223372036854775807; GD.Print(maxInt); // 9223372036854775807, OK. maxInt++; GD.Print(maxInt); // -9223372036854775808, we overflowed and wrapped around. // Alternatively, if we used C#'s 32-bit `int` type, the maximum value is much smaller: int halfInt = 2147483647; GD.Print(halfInt); // 2147483647, OK. halfInt++; GD.Print(halfInt); // -2147483648, we overflowed and wrapped around. [/csharp] [/codeblocks] Constructs a default-initialized [int] set to [code]0[/code]. Constructs an [int] as a copy of the given [int]. Cast a [bool] value to an integer value, [code]int(true)[/code] will be equals to 1 and [code]int(false)[/code] will be equals to 0. Cast a float value to an integer value, this method simply removes the number fractions (i.e. rounds [param from] towards zero), so for example [code]int(2.7)[/code] will be equals to 2, [code]int(0.1)[/code] will be equals to 0 and [code]int(-2.7)[/code] will be equals to -2. This operation is also called truncation. Returns [code]true[/code] if this [int] is not equivalent to the given [float]. Returns [code]true[/code] if the integers are not equal. Returns the remainder after dividing two integers. This operation uses truncated division, which is often not desired as it does not work well with negative numbers. Consider using [method @GlobalScope.posmod] instead if you want to handle negative numbers. [codeblock] print(5 % 2) # 1 print(12 % 4) # 0 print(-5 % 3) # -2 [/codeblock] Returns the result of bitwise [code]AND[/code] operation for two integers. [codeblock] print(3 & 1) # 1 print(11 & 3) # 3 [/codeblock] It's useful to retrieve binary flags from a variable. [codeblock] var flags = 5 # Do something if the first bit is enabled. if flags & 1: do_stuff() [/codeblock] Multiplies each component of the [Color] by the given [int]. Multiplies each component of the [Quaternion] by the given [int]. This operation is not meaningful on its own, but it can be used as a part of a larger expression. Multiplies each component of the [Vector2] by the given [int]. [codeblock] print(2 * Vector2(1, 1)) # Vector2(2, 2) [/codeblock] Multiplies each component of the [Vector2i] by the given [int]. Multiplies each component of the [Vector3] by the given [int]. Multiplies each component of the [Vector3i] by the given [int]. Multiplies an [int] and a [float]. The result is a [float]. Multiplies two [int]s. Adds Unicode character with code [int] to the [String]. Adds an [int] and a [float]. The result is a [float]. Adds two integers. Subtracts a [float] from an [int]. The result is a [float]. Subtracts two integers. Divides an [int] by a [float]. The result is a [float]. [codeblock] print(10 / 3.0) # 3.333... [/codeblock] Divides two integers. The decimal part of the result is discarded (truncated). [codeblock] print(10 / 2) # 5 print(10 / 3) # 3 [/codeblock] Returns [code]true[/code] if this [int] is less than the given [float]. Returns [code]true[/code] if the left integer is less than the right one. Performs bitwise shift left operation on the integer. Effectively the same as multiplying by a power of 2. [codeblock] print(10 << 1) # 20 print(10 << 4) # 160 [/codeblock] Returns [code]true[/code] if this [int] is less than or equal to the given [float]. Returns [code]true[/code] if the left integer is less than or equal to the right one. Returns [code]true[/code] if the integer is equal to the given [float]. Returns [code]true[/code] if both integers are equal. Returns [code]true[/code] if this [int] is greater than the given [float]. Returns [code]true[/code] if the left integer is greater than the right one. Returns [code]true[/code] if this [int] is greater than or equal to the given [float]. Returns [code]true[/code] if the left integer is greater than or equal to the right one. Performs bitwise shift right operation on the integer. Effectively the same as dividing by a power of 2. [codeblock] print(10 >> 1) # 5 print(10 >> 2) # 2 [/codeblock] Returns the result of bitwise [code]XOR[/code] operation for two integers. [codeblock] print(5 ^ 1) # 4 print(4 ^ 7) # 3 [/codeblock] Returns the same value as if the [code]+[/code] was not there. Unary [code]+[/code] does nothing, but sometimes it can make your code more readable. Returns the negated value of the [int]. If positive, turns the number negative. If negative, turns the number positive. If zero, does nothing. Returns the result of bitwise [code]OR[/code] operation for two integers. [codeblock] print(2 | 4) # 6 print(1 | 3) # 3 [/codeblock] It's useful to store binary flags in a variable. [codeblock] var flags = 0 # Turn first and third bit on. flags |= 1 flags |= 4 [/codeblock] Returns the result of bitwise [code]NOT[/code] operation for the integer. It's effectively equal to [code]-int + 1[/code]. [codeblock] print(~4) # -3 print(~7) # -6 [/codeblock]