stack frame

The computer refers to this point as the return address and keeps track of it in the stack frame.

If this stack frame is not active, the offset is the address of the next instruction to be executed when the stack frame is reactivated.

This is because each time a function is called, it has an activation record (also called a stack frame) associated with it.

Notice that since there is nothing left to do in the function, the actual stack frame for the function is not needed either.

In a Java program, a root is a reference to an object held in a static variable or in a local variable on an active stack frame.

Internally, all the variables declared within a method, including the parameters, are stored together in a stack frame.

It copies the variables back from the stack frame object to its locals when control is returned to the function.

The local variables occupy words of the stack frame, just like the method parameters.

If the stack frame is not active, this address is the next instruction to execute when the stack frame is reactivated.

If one of the stack frames is on the current thread, then the menu that corresponds to that stack frame is selected.

Every time a function is called, a new stack frame (an area of memory inside the stack) is used to support the call.

If the call would transfer control to a method of higher trust than the original method the stack frame will not be released.

The stack walk begins at the callers stack frame not the current stack where the demand occurs.

User input is actually harder to make safe because there is no stack frame to trace the presence of the potentially untrusted data.

Remember that the link register is stored in the calling function's stack frame, not the function's own stack frame.

Indicates that the method context contains the active stack frame of a non-current thread.

The stack pointer tells you where the end of your current stack frame is.

All that is left to do is to restore the previous stack frame and return.

If the call transfers control to a method of higher trust than the origin method, the stack frame is not released.

If the stack frame is active, this address is the next instruction to execute.

If you do not specify an argument, the stack frame pointer moves down one frame.

If you specify an argument, the stack frame pointer moves up by the specified number of stack frames.

If you specify an argument, the stack frame pointer moves down by the specified number of frames.

In terms of bytecode, each parameter occupies one or more words of the stack frame in use when the method is executed.

Navigates to the location in the disassembly window that corresponds to the stack frame that the user right-clicked.

These will all be used to make access to stack frame offsets much clearer in the main body of code.

Value types are usually created on a method's stack frame, rather than in the garbage-collected heap.

A stack frame is set up for the local variables of the function.

Navigates to the location in source code that corresponds to the stack frame that the user right-clicked.

Gets the absolute address range of the stack frame represented by this.

Object that corresponds to a frame above the current stack frame.

The prologue sets up the stack frame for the function.

Overwriting the saved return-instruction pointer in a stack frame.

The libsafe versions of those functions check to make sure that array overwrites can't exceed the stack frame.

Otherwise, it assumes the provided address as a valid stack frame start address and attempts to traceback.

The Eclipse debugger displays the stack frame for the suspended threads for each target you are debugging.

So you simply need to move the stack pointer by adding the stack frame size to the stack pointer using ai $sp, $sp, FRAME_SIZE.

A stack frame contains the state of one Java method invocation.

It displays the stack frame for the suspended threads for each target you're debugging.

The -v option provides verbose information about each displayed stack frame.

The Debug View displays the stack frame for the suspended threads for each target you are debugging.

It optionally takes a stack frame address as an argument.

LR_OFFSET is the offset into the stack frame of the return address.

Then the current stack frame is set to that frame (in this case, the second frame).

It displays the stack frame for the suspended threads for each target you are debugging .

The first part of the stack frame is the non-volatile register save area.

A stack frame is essentially the same thing as a function call.

Method to obtain a specific stack frame in a stack trace.

You load register 3 with the return value and perform the function epilogue to restore the stack frame and return.

Displays the address of the current stack frame.

In this program you will have two stack frame sizes -- one for main and one for factorial.

Gets the function name of this stack frame.

To set the current stack frame to the second frame.

Contains values that identify the type of stack frame.

Method to retrieve an indexed stack frame object.

Double-click a stack frame in the Call Stack window to change the context to that function call.

It starts by setting up a stack frame.

Calling a method or function pushes a new stack frame onto the stack.

Gets the module name for this stack frame.

Once inside a function, a local stack frame is created by copying esp to ebp (line 62).

For right now, just know that it sets up the stack frame.

Value that indicates the type of stack frame.

Value that describes the type of stack frame.

However, it is a good example of how to set up and tear down a stack frame.

Therefore, the menu item has submenus, each of which represents a specific stack frame.

Moves the active stack frame down.

Since you have not yet defined your own stack frame, the offset is from the end of the calling function's stack frame.

It never calls another function, so it doesn't need a stack frame.

So, let's say that function func1 calls function func2 with three parameters, and func2 has a 112-byte stack frame.

It looks like Hansel has confused the two variable names because they're using the same stack frame slot.

If you have a native method in the invocation chain, you will see a stack frame in both the native and Java stack.

Assignment statements change the value of variables in the current stack frame. Thus, if your program executes the statement

The procedure then adds information about each stack frame to the list box on the sample, calling the

Set Current Stack Frame Command