c# ocr api open source

c# tesseract ocr download

ocr sdk for c#.net

c# best free ocr

c# read ocr pdf,
c# ocr tool,

tesseract ocr pdf c#,
c# windows.media.ocr,
ocr in c#,
windows.media.ocr example c#,
ocr algorithm c#,

c# ocr github,
ocr algorithm c#,
best ocr library c#,
abbyy ocr sdk c#,
c# modi ocr sample,
tesseract ocr c# image to text,
c# ocr nuget,
c# ocr pdf free,
ironocr c# example,
microsoft ocr c# example,
c# tesseract ocr pdf,
c# pdf ocr,
c# ocr pdf to text,

best ocr sdk c#,
free ocr api for c#,
c# ocr image to text free,
c# tesseract ocr download,
c# winforms ocr,
c# tesseract ocr pdf example,
c# modi ocr example,
microsoft.windows.ocr c# example,
c# pdf ocr,
c# ocr reader,
windows.media.ocr example c#,
c# tesseract ocr tiff,
open source ocr api c#,
microsoft.windows.ocr c# sample,
asprise ocr c# example,
tesseract ocr c# nuget,
best ocr api for c#,
tesseract ocr c# nuget,
c# free ocr api,
microsoft.windows.ocr c# example,
zonal ocr c#,
ironocr c# example,
c# modi ocr sample,
microsoft.windows.ocr c# sample,
c# pdf ocr,
best ocr library c#,
abbyy ocr sdk c#,
c# ocr modi,
c# tesseract ocr pdf example,
ocr algorithm c#,
read text from image c# without ocr,
asprise ocr c#,
c# google ocr example,
google ocr api c#,
c# zonal ocr,
ocr in c#,
c# ocr pdf file,
onenote ocr c# example,
c# ocr tesseract,
c# ocr library open source,
ocr api free c#,
c# ocr library open source,
ocr api c#,
c# free ocr api,
c# ocr open source,
best c# ocr library,
c# ocr library,
tesseract ocr pdf to text c#,
c# winforms ocr,

In addition to those delineated in the Introduction, another mechanism that goes into the definition of a class is composition, which means that that class has a collection of parts, any of which can have a collection of other parts. A composition structure is, therefore, a true hierarchy. Also, this is a dynamic system, because each piece can be a part of multiple collections. Comparing the two, inheritance and composition are both one class s usage of another class (and composition can even be one class s recursive usage of itself), but composition requires instantiation of the used class; in other words, it requires an object. This means that inheritance allows modification of the used class (in that usage), but composition does not. It means that inheritance is an open usage, while composition is a closed usage; it means that inheritance uses a class as a white box , and composition uses it as a black box . (More abstractly, it s like inheritance opens a class for update, and composition opens it read-only.) But composition also wraps its used classes in functionality, allowing for a reasonable degree of functional modification, without the compound static restrictions of inheritance. In the class structure sense, a wrapper is just an added layer. By the way, the fact that composition is a hierarchy is a direct clue to the fact that that

static const uint32_t kSphereNetPacketIdentifier = 'SpHn';

Again, function orientation produces more of a network than a structure. The standard approach to managing the network is to have a huge diagram with arrows everywhere to indicate relationships among the function sets and, further, the individual functions of those sets. This approach has a high learning curve. Ironically, the network of sets of functions is similar to a procedure-oriented problem: the network of commands that defined spaghetti code . Of course, the function-oriented version of the problem is of a much lower occurrence. Another approach that can be very helpful for a given application, immediately and on an ongoing basis, is to map the important functions onto the application structure. In other words, this mapping shows how the function sets are applied to a particular application, to serve as an example. It is a view of the function sets as application oriented. Function orientation is geared to what , then how ; application orientation is geared to why , which is actually a combination of whats.

If you haven t seen this sort of thing before, this is just a multicharacter integer constant. It s conceptually similar to a standard character constant such as 'S', except that it builds a longer integer by stringing the characters together. The constant 'SpHn' is simply a convenient way to write 0x5370486E or 1399867502. The datatype field will then identify the nature of the data that follows this header. Since SphereNet currently sends only position updates, we re only going to have one datatype, but this field leaves open the option to have more in the future. A position update will contain the coordinates of the sphere in question as well as its color. Now, let s consider how to represent these bits of data. In the application, we represent coordinates using CGPoint and colors with float. Floating-point numbers are inconvenient to deal with in networking, though, because the binary format of a floating-point number is inconvenient. We ll transform everything to integers, which are easier to work with and, when it comes to debugging, easier to read when you re poring over a hex dump of a packet. The coordinates will just be 32-bit signed integers. This is a bit of overkill, as the iPhone screen is only 320 480, but it adds some future-proofing. When it comes to the colors, there s no point in using anything bigger than a single byte for each color component. That gives us a range of 0 255 for each component, which is already the maximum color resolution that most screens can reproduce. Our position update packet will then look like this: