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jobs :
test :
runs-on : ubuntu-latest
steps :
- uses : actions/checkout@v2
- uses : julia-actions/add-julia-registry@v1
with :
key : ${{ secrets.SSH_KEY }}
registry : MyOrg/MyRegistry
- uses : julia-actions/setup-julia@v1
with :
version : 1
- uses : julia-actions/julia-runtest@v1
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If your package depends on private packages registered in a private registry, you need to handle authentication to that registry and the package repositories in a fully automated way, since you can't manually enter credentials in a CI environment.
This action will deal with all of that for you, all you need is an SSH private key.
Therefore, when Pkg tries to download packages from the HTTPS URLs in the registry, it will do so over SSH, using your private key as authentication.
Julia Base contains a range of functions and macros appropriate for performing scientific and numerical computing, but is also as broad as those of many general purpose programming languages. Additional functionality is available from a growing collection of available packages. Functions are grouped by topic below.
The behaviors of Base and standard libraries are stable as defined in SemVer only if they are documented; i.e., included in the Julia documentation and not marked as unstable. See API FAQ for more information.
Stop the program with an exit code. The default exit code is zero, indicating that the program completed successfully. In an interactive session, exit() can be called with the keyboard shortcut ^D .
Register a zero-argument function f() to be called at process exit. atexit() hooks are called in last in first out (LIFO) order and run before object finalizers.
Exit hooks are allowed to call exit(n) , in which case Julia will exit with exit code n (instead of the original exit code). If more than one exit hook calls exit(n) , then Julia will exit with the exit code corresponding to the last called exit hook that calls exit(n) . (Because exit hooks are called in LIFO order, "last called" is equivalent to "first registered".)
Determine whether Julia is running an interactive session.
Compute the amount of memory, in bytes, used by all unique objects reachable from the argument.
This function is part of the implementation of using / import , if a module is not already defined in Main . It can also be called directly to force reloading a module, regardless of whether it has been loaded before (for example, when interactively developing libraries).
Loads a source file, in the context of the Main module, on every active node, searching standard locations for files. require is considered a top-level operation, so it sets the current include path but does not use it to search for files (see help for include ). This function is typically used to load library code, and is implicitly called by using to load packages.
When searching for files, require first looks for package code in the global array LOAD_PATH . require is case-sensitive on all platforms, including those with case-insensitive filesystems like macOS and Windows.
For more details regarding code loading, see the manual sections on modules and parallel computing .
Creates a precompiled cache file for a module and all of its dependencies. This can be used to reduce package load times. Cache files are stored in DEPOT_PATH[1]/compiled . See Module initialization and precompilation for important notes.
Specify whether the file calling this function is precompilable, defaulting to true . If a module or file is not safely precompilable, it should call __precompile__(false) in order to throw an error if Julia attempts to precompile it.
Evaluate the contents of the input source file in the global scope of module m . Every module (except those defined with baremodule ) has its own definition of include omitting the m argument, which evaluates the file in that module. Returns the result of the last evaluated expression of the input file. During including, a task-local include path is set to the directory containing the file. Nested calls to include will search relative to that path. This function is typically used to load source interactively, or to combine files in packages that are broken into multiple source files.
The optional first argument mapexpr can be used to transform the included code before it is evaluated: for each parsed expression expr in path , the include function actually evaluates mapexpr(expr) . If it is omitted, mapexpr defaults to identity .
Julia 1.5 is required for passing the mapexpr argument.
Evaluate the contents of the input source file in the global scope of the containing module. Every module (except those defined with baremodule ) has its own definition of include , which evaluates the file in that module. Returns the result of the last evaluated expression of the input file. During including, a task-local include path is set to the directory containing the file. Nested calls to include will search relative to that path. This function is typically used to load source interactively, or to combine files in packages that are broken into multiple source files. The argument path is normalized using normpath which will resolve relative path tokens such as .. and convert / to the appropriate path separator.
The optional first argument mapexpr can be used to transform the included code before it is evaluated: for each parsed expression expr in path , the include function actually evaluates mapexpr(expr) . If it is omitted, mapexpr defaults to identity .
Use Base.include to evaluate a file into another module.
Julia 1.5 is required for passing the mapexpr argument.
Like include , except reads code from the given string rather than from a file.
The optional first argument mapexpr can be used to transform the included code before it is evaluated: for each parsed expression expr in code , the include_string function actually evaluates mapexpr(expr) . If it is omitted, mapexpr defaults to identity .
Julia 1.5 is required for passing the mapexpr argument.
In a module, declare that the file specified by path (relative or absolute) is a dependency for precompilation; that is, the module will need to be recompiled if this file changes.
This is only needed if your module depends on a file that is not used via include . It has no effect outside of compilation.
Returns the method of f (a Method object) that would be called for arguments of the given types .
If types is an abstract type, then the method that would be called by invoke is returned.
See also: parentmodule , and @which and @edit in InteractiveUtils .
If types is specified, return an array of methods whose types match. If module is specified, return an array of methods defined in that module. A list of modules can also be specified as an array.
At least Julia 1.4 is required for specifying a module.
Prints one or more expressions, and their results, to stdout , and returns the last result.
A variable referring to the last computed value, automatically set at the interactive prompt.
Return the path of the active Project.toml file. See also Base.set_active_project .
Set the active Project.toml file to projfile . See also Base.active_project .
This is the list of reserved keywords in Julia: baremodule , begin , break , catch , const , continue , do , else , elseif , end , export , false , finally , for , function , global , if , import , let , local , macro , module , quote , return , struct , true , try , using , while . Those keywords are not allowed to be used as variable names.
The following two-word sequences are reserved: abstract type , mutable struct , primitive type . However, you can create variables with names: abstract , mutable , primitive and type .
Finally: where is parsed as an infix operator for writing parametric method and type definitions; in and isa are parsed as infix operators; and outer is parsed as a keyword when used to modify the scope of a variable in an iteration specification of a for loop or generator expression. Creation of variables named where , in , isa or outer is allowed though.
module declares a Module , which is a separate global variable workspace. Within a module, you can control which names from other modules are visible (via importing), and specify which of your names are intended to be public (via exporting). Modules allow you to create top-level definitions without worrying about name conflicts when your code is used together with somebody else’s. See the manual section about modules for more details.
export is used within modules to tell Julia which functions should be made available to the user. For example: export foo makes the name foo available when using the module. See the manual section about modules for details.
import Foo will load the module or package Foo . Names from the imported Foo module can be accessed with dot syntax (e.g. Foo.foo to access the name foo ). See the manual section about modules for details.
using Foo will load the module or package Foo and make its export ed names available for direct use. Names can also be used via dot syntax (e.g. Foo.foo to access the name foo ), whether they are export ed or not. See the manual section about modules for details.
baremodule declares a module that does not contain using Base or local definitions of eval and include . It does still import Core . In other words,
Functions are defined with the function keyword:
The use of the return keyword is exactly the same as in other languages, but is often optional. A function without an explicit return statement will return the last expression in the function body.
macro defines a method for inserting generated code into a program. A macro maps a sequence of argument expressions to a returned expression, and the resulting expression is substituted directly into the program at the point where the macro is invoked. Macros are a way to run generated code without calling eval , since the generated code instead simply becomes part of the surrounding program. Macro arguments may include expressions, literal values, and symbols. Macros can be defined for variable number of arguments (varargs), but do not accept keyword arguments. Every macro also implicitly gets passed the arguments __source__ , which contains the line number and file name the macro is called from, and __module__ , which is the module the macro is expanded in.
return x causes the enclosing function to exit early, passing the given value x back to its caller. return by itself with no value is equivalent to return nothing (see nothing ).
In general you can place a return statement anywhere within a function body, including within deeply nested loops or conditionals, but be careful with do blocks. For example:
In the first example, the return breaks out of test1 as soon as it hits an even number, so test1([5,6,7]) returns 12 .
You might expect the second example to behave the same way, but in fact the return there only breaks out of the inner function (inside the do block) and gives a value back to map . test2([5,6,7]) then returns [5,12,7] .
When used in a top-level expression (i.e. outside any function), return causes the entire current top-level expression to terminate early.
Create an anonymous function and pass it as the first argument to a function call. For example:
is equivalent to map(x->2x, 1:10) .
begin...end denotes a block of code.
Usually begin will not be necessary, since keywords such as function and let implicitly begin blocks of code. See also ; .
begin may also be used when indexing to represent the first index of a collection or the first index of a dimension of an array.
end marks the conclusion of a block of expressions, for example module , struct , mutable struct , begin , let , for etc.
end may also be used when indexing to represent the last index of a collection or the last index of a dimension of an array.
let statements create a new hard scope block and introduce new variable bindings each time they run. Whereas assignments might reassign a new value to an existing value location, let always creates a new location. This difference is only detectable in the case of variables that outlive their scope via closures. The let syntax accepts a comma-separated series of assignments and variable names:
The assignments are evaluated in order, with each right-hand side evaluated in the scope before the new variable on the left-hand side has been introduced. Therefore it makes sense to write something like let x = x , since the two x variables are distinct and have separate storage.
if / elseif / else performs conditional evaluation, which allows portions of code to be evaluated or not evaluated depending on the value of a boolean expression. Here is the anatomy of the if / elseif / else conditional syntax:
If the condition expression x < y is true, then the corresponding block is evaluated; otherwise the condition expression x > y is evaluated, and if it is true, the corresponding block is evaluated; if neither expression is true, the else block is evaluated. The elseif and else blocks are optional, and as many elseif blocks as desired can be used.
In contrast to some other languages conditions must be of type Bool . It does not suffice for conditions to be convertible to Bool .
for loops repeatedly evaluate a block of statements while iterating over a sequence of values.
while loops repeatedly evaluate a conditional expression, and continue evaluating the body of the while loop as long as the expression remains true. If the condition expression is false when the while loop is first reached, the body is never evaluated.
Skip the rest of the current loop iteration.
A try / catch statement allows intercepting errors (exceptions) thrown by throw so that program execution can continue. For example, the following code attempts to write a file, but warns the user and proceeds instead of terminating execution if the file cannot be written:
or, when the file cannot be read into a variable:
The syntax catch e (where e is any variable) assigns the thrown exception object to the given variable within the catch block.
The power of the try / catch construct lies in the ability to unwind a deeply nested computation immediately to a much higher level in the stack of calling functions.
Run some code when a given block of code exits, regardless of how it exits. For example, here is how we can guarantee that an opened file is closed:
When control leaves the try block (for example, due to a return , or just finishing normally), close(f) will be executed. If the try block exits due to an exception, the exception will continue propagating. A catch block may be combined with try and finally as well. In this case the finally block will run after catch has handled the error.
quote creates multiple expression objects in a block without using the explicit Expr constructor. For example:
Unlike the other means of quoting, :( ... ) , this form introduces QuoteNode elements to the expression tree, which must be considered when directly manipulating the tree. For other purposes, :( ... ) and quote .. end blocks are treated identically.
local introduces a new local variable. See the manual section on variable scoping for more information.
global x makes x in the current scope and its inner scopes refer to the global variable of that name. See the manual section on variable scoping for more information.
const is used to declare global variables whose values will not change. In almost all code (and particularly performance sensitive code) global variables should be declared constant in this way.
Multiple variables can be declared within a single const :
Note that const on
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