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The immediate and watch windows don't support overloaded operators. There is some support in there for printing standard containers as a whole in a sensible fashion (see, e.g., =120), but this doesn't extend to being able to use operator[] on them.
(_Myfirst, in the standard libraries that come with VC++, happens to be the member variable in a std::vector that points to the first element of the sequence. So this is just examining a vector as if it were any other object. To work this out, I had to look at the headers... not very convenient, but hopefully this will help you. You can probably do something similar with the other containers, but you'll have to look in the headers to work out how.)
In nowaday's Visual Studio versions (e.g. 2013/2015) _Myfirst member variable does no longer exist for a std::vector variable. Use _C_begin instead - means for the given example use e.g. lines._C_begin[i].
The C++ Standard Library vector class is a class template for sequence containers. A vector stores elements of a given type in a linear arrangement, and allows fast random access to any element. A vector is the preferred container for a sequence when random-access performance is at a premium.
Allocator
The type that represents the stored allocator object that encapsulates details about the vector's allocation and deallocation of memory. This argument is optional and the default value is allocator.
Vectors allow constant time insertions and deletions at the end of the sequence. Inserting or deleting elements in the middle of a vector requires linear time. The deque class container is faster at insertions and deletions at the beginning and end of a sequence. The list class container is faster at insertions and deletions at any location within a sequence.
Vector reallocation occurs when a member function must increase the sequence contained in the vector object beyond its current storage capacity. Other insertions and erasures may alter various storage addresses within the sequence. In all such cases, iterators or references that point at altered portions of the sequence become invalid. If no reallocation happens, only iterators and references before the insertion/deletion point remain valid.
First, assign erases any existing elements in a vector. Then, assign either inserts a specified range of elements from the original vector into a vector, or it inserts copies of a new specified value element into a vector.
If the return value of begin is assigned to a vector::const_iterator, the vector object can't be modified. If the return value of begin is assigned to an vector::iterator, the vector object can be modified.
A const past-the-end iterator for the vector. It points to the element following the last element of the vector. That element is a placeholder and shouldn't be dereferenced. Only use it for comparisons. If the vector is empty, then vector::cend() == vector::cbegin().
A const reverse past-the-end iterator for the reversed vector. It points to the element following the last element of the reversed vector, which is the same as the element before the first element of the non-reversed vector. That element is a placeholder and shouldn't be dereferenced. Only use it for comparisons.
A past-the-end iterator for the vector. It points to the element following the last element of the vector. That element is a placeholder and shouldn't be dereferenced. Only use it for comparisons. If the vector is empty, then vector::end() == vector::begin().
If the return value of end is assigned to a variable of type const_iterator, the vector object can't be modified. If the return value of end is assigned to a variable of type iterator, the vector object can be modified.
If the return value of front is assigned to a const_reference, the vector object can't be modified. If the return value of front is assigned to a reference, the vector object can be modified.
Allocators for the vector class specify how the class manages storage. The default allocators supplied with C++ Standard Library container classes are sufficient for most programming needs. Writing and using your own allocator class is an advanced C++ feature.
As a precondition, first and last must not be iterators into the vector, or the behavior is undefined. Any insertion operation can be expensive, see vector class for a discussion of vector performance.
If the return value of operator[] is assigned to a const_reference, the vector object can't be modified. If the return value of operator[] is assigned to a reference, the vector object can be modified.
When compiled by using _ITERATOR_DEBUG_LEVEL defined as 1 or 2, a runtime error occurs if you attempt to access an element outside the bounds of the vector. For more information, see Checked iterators.
If the return value of rbegin is assigned to a const_reverse_iterator, the vector object can't be modified. If the return value of rbegin is assigned to a reverse_iterator, the vector object can be modified.
A reverse past-the-end iterator for the reversed vector. It points to the element following the last element of the reversed vector, which is the same as the element before the first element of the non-reversed vector. That element is a placeholder and shouldn't be dereferenced. Only use it for comparisons.
If the return value of rend is assigned to a const_reverse_iterator, then the vector object can't be modified. If the return value of rend is assigned to a reverse_iterator, then the vector object can be modified.
If the container's size is less than the requested size, new_size, resize adds elements to the vector until it reaches the requested size. When the container's size is larger than the requested size, resize deletes the elements closest to the end of the container until it reaches the size new_size. No action is taken if the present size of the container is the same as the requested size.
Constructs a vector. Overloads construct a vector of a specific size, or with elements of a specific value. Or, as a copy of all or part of some other vector. Some overloads also allow you to specify the allocator to use.
Again today I run into the problem that layout printing in vector is still seriously broken.
Details in my custom display mode will not print with vector mode or print different than displayed.
(see attached examples)
detailPrints.zip (83.2 KB)
I tried this example Processing vector to raster faster with R on Windows, where the option "FORK" for makeCluster is not available. Defaults to "SOCK" or can be set "PSOCK". When running into the decisive line: system.time(rParts
Traditionally i used readOGR for vector data with rasterize (slow). Then I replaced rasterize with gdal_rasterize (good improvement). Then I put gdal_rasterize inside a cluster, for more improvements. Then i was using the sf package to massively reduce the polygon read time and also the gdal_rasterize inside a cluster, which was as far as i got (to be fair, all these stages reduced a 3 day job to 40 mins).
And then you only need to choose what application you want to take screenshot with your mouse. Curently, the application should be a Gtk+ 3 for a successful vector screenshot. The result will be a PDF file in the current working directory.
Capture as vector? No of course not. There is no way for the capture program to know anything about the geometry of the shapes on screen without having some sort of hook into the program(s) doing the drawing.
What you can do however is to capture a raster image and then convert that to vector. There are tools like Inkscape that can perform this conversion (though you will usually have to manually do some tweaking, and even then, you will rarely be able to get pixel-perfect results).
Both are native vector UIs, but allow bitmaps to be used as well - this is an excellent fit for SVG. However while tools to export WPF to SVG exist (the same goes for NSView), most of these are aimed at software developers. For example, you would need the XAML source of your application to export that into SVG.
Is all of this correct? Specifically, is there another vector to this flaw apart from the end-user connecting to a shared printer? i.e. Malicious commands that can be sent to the affected workstation; Code on the workstation that could elevate permissions despite the above protections? etc...
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