golang double assignment

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Go Variables Multiple Variable Assignment

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In Go, you can declare multiple variables at the same time.

If a function returns multiple values, you can also assign values to variables based on the function's return values.

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Go Wiki: Simultaneous Assignment

Simultaneous assignment is useful in many cases to make related assignments in a single statement. Sometimes they are required, either because only a single statement is available (e.g. in an if statement) or because the values will change after the statement (e.g. in the case of swap). All values on the right-hand side of the assignment operator are evaluated before the assignment is performed.

Simultaneous assignment in an if statement can improve readability, especially in test functions:

Swapping two values is also made simple using simultaneous assignment:

https://go.dev/ref/spec#Assignments

This content is part of the Go Wiki .

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Go operators

last modified April 11, 2024

In this article we cover Go operators. We show how to use operators to create expressions.

We use Go version 1.22.2.

An operator is a special symbol which indicates a certain process is carried out. Operators in programming languages are taken from mathematics. Programmers work with data. The operators are used to process data. An operand is one of the inputs (arguments) of an operator.

Expressions are constructed from operands and operators. The operators of an expression indicate which operations to apply to the operands. The order of evaluation of operators in an expression is determined by the precedence and associativity of the operators.

An operator usually has one or two operands. Those operators that work with only one operand are called unary operators . Those who work with two operands are called binary operators .

Certain operators may be used in different contexts. For instance the + operator can be used in different cases: it adds numbers, concatenates strings, or indicates the sign of a number. We say that the operator is overloaded .

Go sign operators

There are two sign operators: + and - . They are used to indicate or change the sign of a value.

The + and - signs indicate the sign of a value. The plus sign can be used to signal that we have a positive number. It can be omitted and it is in most cases done so.

The minus sign changes the sign of a value.

Go assignment operator

The assignment operator = assigns a value to a variable. A variable is a placeholder for a value. In mathematics, the = operator has a different meaning. In an equation, the = operator is an equality operator. The left side of the equation is equal to the right one.

Here we assign a number to the x variable.

This expression does not make sense in mathematics, but it is legal in programming. The expression adds 1 to the x variable. The right side is equal to 2 and 2 is assigned to x .

This code line leads to a syntax error. We cannot assign a value to a literal.

Go has a short variable declaration operator := ; it declares a variable and assigns a value in one step. The x := 2 is equal to var x = 2 .

Go increment and decrement operators

We often increment or decrement a value by one in programming. Go has two convenient operators for this: ++ and -- .

In the above example, we demonstrate the usage of both operators.

We initiate the x variable to 6. Then we increment x two times. Now the variable equals to 8.

We use the decrement operator. Now the variable equals to 7.

Go compound assignment operators

The compound assignment operators consist of two operators. They are shorthand operators.

The += compound operator is one of these shorthand operators. The above two expressions are equal. Value 3 is added to the a variable.

Other compound operators include:

In the code example, we use two compound operators.

The a variable is initiated to one. 1 is added to the variable using the non-shorthand notation.

Using a += compound operator, we add 5 to the a variable. The statement is equal to a = a + 5 .

Using the *= operator, the a is multiplied by 3. The statement is equal to a = a * 3 .

Go arithmetic operators

The following is a table of arithmetic operators in Go.

The following example shows arithmetic operations.

In the preceding example, we use addition, subtraction, multiplication, division, and remainder operations. This is all familiar from the mathematics.

The % operator is called the remainder or the modulo operator. It finds the remainder of division of one number by another. For example, 9 % 4 , 9 modulo 4 is 1, because 4 goes into 9 twice with a remainder of 1.

Next we will show the distinction between integer and floating point division.

In the preceding example, we divide two numbers.

In this code, we have done integer division. The returned value of the division operation is an integer. When we divide two integers the result is an integer.

If one of the values is a double or a float, we perform a floating point division. In our case, the second operand is a double so the result is a double.

Go Boolean operators

In Go we have three logical operators.

Boolean operators are also called logical.

Many expressions result in a boolean value. For instance, boolean values are used in conditional statements.

Relational operators always result in a boolean value. These two lines print false and true.

The body of the if statement is executed only if the condition inside the parentheses is met. The y > x returns true, so the message "y is greater than x" is printed to the terminal.

The true and false keywords represent boolean literals in Go.

The code example shows the logical and (&&) operator. It evaluates to true only if both operands are true.

Only one expression results in true.

The logical or ( || ) operator evaluates to true if either of the operands is true.

If one of the sides of the operator is true, the outcome of the operation is true.

Three of four expressions result in true.

The negation operator ! makes true false and false true.

The example shows the negation operator in action.

Go comparison operators

Comparison operators are used to compare values. These operators always result in a boolean value.

comparison operators are also called relational operators.

In the code example, we have four expressions. These expressions compare integer values. The result of each of the expressions is either true or false. In Go we use the == to compare numbers. (Some languages like Ada, Visual Basic, or Pascal use = for comparing numbers.)

Go bitwise operators

Decimal numbers are natural to humans. Binary numbers are native to computers. Binary, octal, decimal, or hexadecimal symbols are only notations of the same number. Bitwise operators work with bits of a binary number.

The bitwise and operator performs bit-by-bit comparison between two numbers. The result for a bit position is 1 only if both corresponding bits in the operands are 1.

The first number is a binary notation of 6, the second is 3, and the result is 2.

The bitwise or operator performs bit-by-bit comparison between two numbers. The result for a bit position is 1 if either of the corresponding bits in the operands is 1.

The result is 00110 or decimal 7.

The bitwise exclusive or operator performs bit-by-bit comparison between two numbers. The result for a bit position is 1 if one or the other (but not both) of the corresponding bits in the operands is 1.

The result is 00101 or decimal 5.

Go pointer operators

In Go, the & is an address of operator and the * is a pointer indirection operator.

In the code example, we demonstrate the two operators.

An integer variable is defined.

We get the address of the count variable; we create a pointer to the variable.

Via the pointer dereference, we modify the value of count.

Again, via pointer dereference, we print the value to which the pointer refers.

Go channel operator

A channels is a typed conduit through which we can send and receive values with the channel operator <- .

The example presents the channel operator.

We send a value to the channel.

We receive a value from the channel.

Go operator precedence

The operator precedence tells us which operators are evaluated first. The precedence level is necessary to avoid ambiguity in expressions.

What is the outcome of the following expression, 28 or 40?

Like in mathematics, the multiplication operator has a higher precedence than addition operator. So the outcome is 28.

To change the order of evaluation, we can use parentheses. Expressions inside parentheses are always evaluated first. The result of the above expression is 40.

In this code example, we show a few expressions. The outcome of each expression is dependent on the precedence level.

This line prints 28. The multiplication operator has a higher precedence than addition. First, the product of 5 * 5 is calculated, then 3 is added.

The evaluation of the expression can be altered by using round brackets. In this case, the 3 + 5 is evaluated and later the value is multiplied by 5. This line prints 40.

In this case, the negation operator has a higher precedence than the bitwise or. First, the initial true value is negated to false, then the | operator combines false and true, which gives true in the end.

Associativity rule

Sometimes the precedence is not satisfactory to determine the outcome of an expression. There is another rule called associativity . The associativity of operators determines the order of evaluation of operators with the same precedence level.

What is the outcome of this expression, 9 or 1? The multiplication, deletion, and the modulo operator are left to right associated. So the expression is evaluated this way: (9 / 3) * 3 and the result is 9.

Arithmetic, boolean and relational operators are left to right associated. The ternary operator, increment, decrement, unary plus and minus, negation, bitwise not, type cast, object creation operators are right to left associated.

In the code example, we the associativity rule determines the outcome of the expression.

The compound assignment operators are right to left associated. We might expect the result to be 1. But the actual result is 0. Because of the associativity. The expression on the right is evaluated first and then the compound assignment operator is applied.

The Go Programming Language Specification

In this article we have covered Go operators.

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In Computer Programming, an operator is a symbol that performs operations on a value or a variable.

For example, + is an operator that is used to add two numbers.

Go programming provides wide range of operators that are categorized into following major categories:

• Arithmetic operators
• Assignment operator
• Relational operators
• Logical operators
• Arithmetic Operator

We use arithmetic operators to perform arithmetic operations like addition, subtraction, multiplication, and division.

Here's a list of various arithmetic operators available in Go.

Example 1: Addition, Subtraction and Multiplication Operators

Example 2: golang division operator.

In the above example, we have used the / operator to divide two numbers: 11 and 4 . Here, we get the output 2 .

However, in normal calculation, 11 / 4 gives 2.75 . This is because when we use the / operator with integer values, we get the quotients instead of the actual result.

If we want the actual result we should always use the / operator with floating point numbers. For example,

Here, we get the actual result after division.

Example 3: Modulus Operator in Go

In the above example, we have used the modulo operator with numbers: 11 and 4 . Here, we get the result 3 .

This is because in programming, the modulo operator always returns the remainder after division.

Note: The modulo operator is always used with integer values.

• Increment and Decrement Operator in Go

In Golang, we use ++ (increment) and -- (decrement) operators to increase and decrease the value of a variable by 1 respectively. For example,

In the above example,

• num++ - increases the value of num by 1 , from 5 to 6
• num-- - decreases the value of num by 1 , from 5 to 4

Note: We have used ++ and -- as prefixes (before variable). However, we can also use them as postfixes ( num++ and num-- ).

There is a slight difference between using increment and decrement operators as prefixes and postfixes. To learn the difference, visit Increment and Decrement Operator as Prefix and Postfix .

• Go Assignment Operators

We use the assignment operator to assign values to a variable. For example,

Here, the = operator assigns the value on right ( 34 ) to the variable on left ( number ).

Example: Assignment Operator in Go

In the above example, we have used the assignment operator to assign the value of the num variable to the result variable.

• Compound Assignment Operators

In Go, we can also use an assignment operator together with an arithmetic operator. For example,

Here, += is additional assignment operator. It first adds 6 to the value of number ( 2 ) and assigns the final result ( 8 ) to number .

Here's a list of various compound assignment operators available in Golang.

• Relational Operators in Golang

We use the relational operators to compare two values or variables. For example,

Here, == is a relational operator that checks if 5 is equal to 6 .

A relational operator returns

• true if the comparison between two values is correct
• false if the comparison is wrong

Here's a list of various relational operators available in Go:

To learn more, visit Go relational operators .

• Logical Operators in Go

We use the logical operators to perform logical operations. A logical operator returns either true or false depending upon the conditions.

To learn more, visit Go logical operators .

More on Go Operators

The right shift operator shifts all bits towards the right by a certain number of specified bits.

Suppose we want to right shift a number 212 by some bits then,

For example,

The left shift operator shifts all bits towards the left by a certain number of specified bits. The bit positions that have been vacated by the left shift operator are filled with 0 .

Suppose we want to left shift a number 212 by some bits then,

In Go, & is the address operator that is used for pointers. It holds the memory address of a variable. For example,

Here, we have used the * operator to declare the pointer variable. To learn more, visit Go Pointers .

In Go, * is the dereferencing operator used to declare a pointer variable. A pointer variable stores the memory address. For example,

In Go, we use the concept called operator precedence which determines which operator is executed first if multiple operators are used together. For example,

Here, the / operator is executed first followed by the * operator. The + and - operators are respectively executed at last.

This is because operators with the higher precedence are executed first and operators with lower precedence are executed last.

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• Golang Division Operator

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Go - Assignment Operators

The following table lists all the assignment operators supported by Go language −

Try the following example to understand all the assignment operators available in Go programming language −

When you compile and execute the above program it produces the following result −

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cmd/compile: double assignment not optimized #31172

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✌️ 4 ways to create or print string with double quotes in Go

To print or create a string with double quotes in Go, you can use any of the following methods:

• Format a string using %q verb in the fmt.Printf() or fmt.Sprintf() functions.
• Format a string using escaped double quotes \" in the fmt.Printf() or fmt.Sprintf() functions.
• Use the strconv.Quote() function.
• Format a double-quoted string using a raw string literal - a string between back quotes ` in the fmt.Printf() or fmt.Sprintf() functions.

See the examples below to learn how each of these methods works.

Print a string with double quotes using the %q format verb

The easiest method of creating of printing string with double quotes is to use the fmt.Printf() or fmt.Sprintf() functions with the %q format verb , which is designed to do just that. From the fmt package documentation:

%q a double-quoted string safely escaped with Go syntax

Print a string with double quotes using the format with escaped double quotes

Alternatively, to print or create a string with double quotes, you can add these quotes manually in the format of the fmt.Printf() or fmt.Sprintf() functions. Note that the quotes within the string must be escaped by adding a backslash character before the quotation mark: \" .

Create a string with double quotes using the strconv.Quote() function

It is also possible to use the function strconv.Quote() to create a new string with double quotes. In this case, printing and creating look almost the same because you need to create the quoted string first, and then you can print or use it in the application.

Print a string with double quotes using back quotes (raw string) format

The last, most human-friendly method for creating or printing string with double quotes is to use the raw string literal in the format of the fmt.Printf() or fmt.Sprintf() functions. The raw string literal is any character sequence between back quotes, such as `abc` . Strings between back quotes are printed as they are, they may contain newlines, and escape characters are not interpreted.

So in our case, we do not have to use the escaped double-quote character as in the second example. The only problem is when we want to print the quoted string with the newline at the end. Look at the example below. Since we are printing the raw string, we have to use Enter to add a newline character which makes the code look ugly. For this reason, we recommend using the second method rather, with the double quotes escaped.

All of the examples return the same output 😉:

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Go maps in action.

Andrew Gerrand 6 February 2013

Introduction

One of the most useful data structures in computer science is the hash table. Many hash table implementations exist with varying properties, but in general they offer fast lookups, adds, and deletes. Go provides a built-in map type that implements a hash table.

Declaration and initialization

A Go map type looks like this:

where KeyType may be any type that is comparable (more on this later), and ValueType may be any type at all, including another map!

This variable m is a map of string keys to int values:

Map types are reference types, like pointers or slices, and so the value of m above is nil ; it doesn’t point to an initialized map. A nil map behaves like an empty map when reading, but attempts to write to a nil map will cause a runtime panic; don’t do that. To initialize a map, use the built in make function:

The make function allocates and initializes a hash map data structure and returns a map value that points to it. The specifics of that data structure are an implementation detail of the runtime and are not specified by the language itself. In this article we will focus on the use of maps, not their implementation.

Working with maps

Go provides a familiar syntax for working with maps. This statement sets the key "route" to the value 66 :

This statement retrieves the value stored under the key "route" and assigns it to a new variable i:

If the requested key doesn’t exist, we get the value type’s zero value . In this case the value type is int , so the zero value is 0 :

The built in len function returns on the number of items in a map:

The built in delete function removes an entry from the map:

The delete function doesn’t return anything, and will do nothing if the specified key doesn’t exist.

A two-value assignment tests for the existence of a key:

In this statement, the first value ( i ) is assigned the value stored under the key "route" . If that key doesn’t exist, i is the value type’s zero value ( 0 ). The second value ( ok ) is a bool that is true if the key exists in the map, and false if not.

To test for a key without retrieving the value, use an underscore in place of the first value:

To iterate over the contents of a map, use the range keyword:

To initialize a map with some data, use a map literal:

The same syntax may be used to initialize an empty map, which is functionally identical to using the make function:

Exploiting zero values

It can be convenient that a map retrieval yields a zero value when the key is not present.

For instance, a map of boolean values can be used as a set-like data structure (recall that the zero value for the boolean type is false). This example traverses a linked list of Nodes and prints their values. It uses a map of Node pointers to detect cycles in the list.

The expression visited[n] is true if n has been visited, or false if n is not present. There’s no need to use the two-value form to test for the presence of n in the map; the zero value default does it for us.

Another instance of helpful zero values is a map of slices. Appending to a nil slice just allocates a new slice, so it’s a one-liner to append a value to a map of slices; there’s no need to check if the key exists. In the following example, the slice people is populated with Person values. Each Person has a Name and a slice of Likes. The example creates a map to associate each like with a slice of people that like it.

To print a list of people who like cheese:

To print the number of people who like bacon:

Note that since both range and len treat a nil slice as a zero-length slice, these last two examples will work even if nobody likes cheese or bacon (however unlikely that may be).

As mentioned earlier, map keys may be of any type that is comparable. The language spec defines this precisely, but in short, comparable types are boolean, numeric, string, pointer, channel, and interface types, and structs or arrays that contain only those types. Notably absent from the list are slices, maps, and functions; these types cannot be compared using == , and may not be used as map keys.

It’s obvious that strings, ints, and other basic types should be available as map keys, but perhaps unexpected are struct keys. Struct can be used to key data by multiple dimensions. For example, this map of maps could be used to tally web page hits by country:

This is map of string to (map of string to int ). Each key of the outer map is the path to a web page with its own inner map. Each inner map key is a two-letter country code. This expression retrieves the number of times an Australian has loaded the documentation page:

Unfortunately, this approach becomes unwieldy when adding data, as for any given outer key you must check if the inner map exists, and create it if needed:

On the other hand, a design that uses a single map with a struct key does away with all that complexity:

When a Vietnamese person visits the home page, incrementing (and possibly creating) the appropriate counter is a one-liner:

And it’s similarly straightforward to see how many Swiss people have read the spec:

Concurrency

Maps are not safe for concurrent use : it’s not defined what happens when you read and write to them simultaneously. If you need to read from and write to a map from concurrently executing goroutines, the accesses must be mediated by some kind of synchronization mechanism. One common way to protect maps is with sync.RWMutex .

This statement declares a counter variable that is an anonymous struct containing a map and an embedded sync.RWMutex .

To read from the counter, take the read lock:

To write to the counter, take the write lock:

Iteration order

When iterating over a map with a range loop, the iteration order is not specified and is not guaranteed to be the same from one iteration to the next. If you require a stable iteration order you must maintain a separate data structure that specifies that order. This example uses a separate sorted slice of keys to print a map[int]string in key order:

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Combining Conditional Statements in Golang

• Loop Control Statements in Go Language
• Composition in Golang
• Comparing Maps in Golang
• How to use strconv.FormatUint() Function in Golang?
• Comparing Pointers in Golang
• strings.Contains Function in Golang with Examples
• Golang | Deadlock and Default Case in Select Statement
• How to use strconv.FormatBool() Function in Golang?
• How to Fix Race Condition using Atomic Functions in Golang?
• Embedding Interfaces in Golang
• complx.IsNaN() Function in Golang With Examples
• strings.ContainsAny() Function in Golang with Examples
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• Conditional Statements | Shell Script
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• Check multiple conditions in if statement - Python
• How to implement Conditional Rendering in React?

Go is a open-source programming language developed at Google by Robert Griesemer, Rob Pike, and Ken Thompson. Go is similar to C syntactically but with CSP style concurrency and many features of other robust programming language. Often refereed to as Golang because of the domain name, this language also has the If/else conditions. Usually the If/else/else if condition when written with one condition makes the program lengthy and increases the complexity thus we can combine two conditions. The conditions can be combined in the following ways :-

Using &&(AND) Operator

The And (&&) is a way of combining conditional statement has the following syntax:

Here, condition1 represents the first condition and condition2 represents the second condition. The && statement combines the conditions and gives the results in the following way:

• If condition1 is True and condition2 is also True , the result is True .
• If condition1 is True and condition2 is   False , the result is False .
• If condition1 is False and condition2 is   True , the result is False .
• If condition1 is False and condition2 is also False , the result is False .  

Using OR operator

The OR way of combining conditional statement has the following syntax:

Here, condition1 represents the first condition and condition2 represents the second condition. The || statement combines the conditions and gives the results in the following way:

• If condition1 is True and condition2 is   False , the result is Tru e .
• If condition1 is False and condition2 is   True , the result is Tru e .

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