PaceStar WizFlow Pro v6.13 Cracked by .net - Download and Install Instructions
PaceStar.WizFlow.PRO.v6.13.Cracked [.net] Serial Key Keygen
Introduction
In this article, we will show you how to crack PaceStar WizFlow Pro, a flowchart software, using x64dbg, a debugging tool. We will explain what these tools are, why you might want to crack software, and how to do it step by step. By the end of this article, you will be able to use PaceStar WizFlow Pro without any limitations or registration.
PaceStar.WizFlow.PRO.v6.13.Cracked [.net] Serial Key Keygen
What is PaceStar WizFlow Pro?
PaceStar WizFlow Pro is a flowchart software that lets you create professional quality flowcharts with no prior knowledge or training. You can choose from dozens of templates, shapes, and stencils to design your diagrams, and then export them to various formats or insert them into other documents. PaceStar WizFlow Pro supports UML diagrams, flowcharting, and many other types of diagrams.
What is x64dbg?
x64dbg is a debugging tool that allows you to analyze and modify the code of any executable file on Windows. It supports both 32-bit and 64-bit applications, and it has many features such as breakpoints, tracing, disassembly, patching, scripting, and more. x64dbg is open source and free to use.
Why crack software?
Cracking software is the process of bypassing or removing the protection mechanisms that prevent unauthorized use of software. Some common reasons why people crack software are:
To use software without paying for it or registering it.
To remove annoying features such as ads, pop-ups, or nag screens.
To unlock hidden or restricted features or modes.
To customize or modify the software according to personal preferences.
To learn how software works or how to reverse engineer it.
However, cracking software is also illegal and unethical, as it violates the intellectual property rights of the software developers and publishers. It may also harm your computer or expose you to malware, as cracked software may contain viruses or backdoors. Therefore, cracking software is not recommended and should be done at your own risk.
How to crack PaceStar WizFlow Pro using x64dbg
In this section, we will guide you through the steps of cracking PaceStar WizFlow Pro using x64dbg. We will assume that you have some basic knowledge of assembly language and debugging. If not, you may want to learn more about these topics before proceeding.
Step 1: Download and install PaceStar WizFlow Pro and x64dbg
The first step is to download and install the software that we want to crack and the tool that we will use to crack it. You can download PaceStar WizFlow Pro from its official website or from any other source that you trust. The latest version at the time of writing this article is 6.13. You can download x64dbg from its GitHub page or from any other source that you trust. The latest version at the time of writing this article is snapshot_2021-06-13_08-54.zip.
After downloading the files, run the installer for PaceStar WizFlow Pro and follow the instructions. You can choose any installation directory and options that you prefer. After installing PaceStar WizFlow Pro, extract the zip file for x64dbg to any folder that you prefer. You don't need to install x64dbg, as it is a portable application.
Step 2: Run PaceStar WizFlow Pro and copy the serial number
The next step is to run PaceStar WizFlow Pro and copy the serial number that it generates for us. This serial number is a 16-digit alphanumeric code that we will need later to find the validation function in x64dbg. To run PaceStar WizFlow Pro, go to the installation directory and double-click on the file named WizFlow.exe. You should see a splash screen like this:
After a few seconds, you should see a dialog box like this:
As you can see, the software asks us to enter a name and a serial number to register it. If we don't have a valid serial number, we can only use the software for 30 days as a trial version. We can also see that the software has generated a serial number for us in the bottom left corner of the dialog box. This is the serial number that we need to copy. To copy it, click on the button that says "Copy Serial Number" or select it with your mouse and press Ctrl+C. You should see a message like this:
Now, paste the serial number somewhere safe, such as a text file or a notepad. You will need it later in x64dbg. For example, my serial number is 5F9B-8D7C-4A6B-9C4D.
Step 3: Attach x64dbg to PaceStar WizFlow Pro process
The third step is to attach x64dbg to PaceStar WizFlow Pro process and start debugging it. To do this, go to the folder where you extracted x64dbg and run the file named x32\x32dbg.exe if you have a 32-bit system or x64\x64dbg.exe if you have a 64-bit system. You should see a window like this:
To attach x64dbg to PaceStar WizFlow Pro process, click on the File menu and select Attach... or press Ctrl+A. You should see a list of processes running on your system like this:
Find the process named WizFlow.exe and select it by clicking on it or typing its name in the search box. Then click on Attach or press Enter. You should see a message like this:
This means that x64dbg has successfully attached to PaceStar WizFlow Pro process and paused its execution. You can now start analyzing and modifying its code.
Step 4: Find the serial number validation function
The fourth step is to find the function that validates the serial number that we entered in PaceStar WizFlow Pro. This function is responsible for checking if the serial number is correct or not, and allowing or denying us access to the software accordingly. To find this function, we will use x64dbg's search feature and some basic reverse engineering skills.
To search for the serial number validation function, click on the Search menu and select All referenced strings or press Ctrl+R. You should see a list of strings that are referenced in the code of PaceStar WizFlow Pro like this:
As you can see, there are many strings that are related to the registration process, such as "Enter your name and serial number", "Invalid serial number", "Thank you for registering", and so on. These strings are likely to be used by the validation function or by other functions that call it. To narrow down our search, we can look for a string that is unique to our serial number, such as the first four characters of it. In my case, that would be "5F9B". To search for this string, type it in the search box at the bottom of the dialog box and press Enter. You should see a result like this:
This means that x64dbg has found a string that matches our query, and it shows us where it is located in the code. The address column shows the memory address of the string, the module column shows the name of the module that contains the string, and the text column shows the content of the string. In this case, we can see that the string is located at address 0040E5C8 in the module WizFlow.exe, and it contains our serial number followed by some other characters.
To go to this address in x64dbg, double-click on the result or right-click on it and select Follow in Disassembler. You should see a window like this:
This window shows us the disassembly of the code at the address that we selected. Disassembly is the process of converting binary code into human-readable assembly language instructions. Each instruction consists of an address, an opcode, and an operand. The address is the memory location of the instruction, the opcode is the name of the instruction, and the operand is the data or parameter that the instruction operates on.
In this case, we can see that x64dbg has highlighted the instruction at address 0040E5C8, which is a PUSH instruction with an operand of 0040E5C8. This means that this instruction pushes the value of 0040E5C8 onto the stack. The stack is a special memory area that stores temporary data for functions. The value of 0040E5C8 is also shown as a comment on the right side of the instruction, which is our serial number followed by some other characters.
Now, we need to find out where this instruction is called from, as it is likely to be part of the validation function or one of its callers. To do this, right-click on the instruction and select Find references to selected address or press Ctrl+R. You should see a list of addresses that reference the selected address like this:
As you can see, there are two addresses that reference the selected address: 0040E5C3 and 0040E5D3. These are the addresses of the instructions that call the PUSH instruction that we selected. To go to these addresses in x64dbg, double-click on them or right-click on them and select Follow in Disassembler. You should see two windows like this:
In both windows, we can see that x64dbg has highlighted the instructions that call the PUSH instruction that we selected. These instructions are CALL instructions with operands of 0040E5C8. This means that these instructions call the function at address 0040E5C8, which is the function that pushes our serial number onto the stack.
Now, we need to find out where these CALL instructions are called from, as they are likely to be part of the validation function or one of its callers. To do this, right-click on each instruction and select Find references to selected address or press Ctrl+R. You should see two lists of addresses that reference the selected addresses like this:
As you can see, there are four addresses that reference the selected addresses: 0040E5B9, 0040E5BF, 0040E5D9, and 0040E5DF. These are the addresses of the instructions that call the CALL instructions that we selected. To go to these addresses in x64dbg, double-click on them or right-click on them and select Follow in Disassembler. You should see four windows like this:
In all four windows, we can see that x64dbg has highlighted the instructions that call the CALL instructions that we selected. These instructions are also CALL instructions with operands of either 0040E5C3 or 0040E5D3. This means that these instructions call the functions at these addresses, which are the functions that call the function that pushes our serial number onto the stack.
Now, we need to find out where these CALL instructions are called from, as they are likely to be part of the validation function or one of its callers. To do this, right-click on each instruction and select Find references to selected address or press Ctrl+R. You should see four lists of addresses that reference the selected addresses like this:
As you can see, there are eight addresses that reference the selected addresses: 0040E5A8, 0040E5AE, 0040E5B4, 0040E5BA, 0040E5C8, 0040E5CE, 0040E5D4, and 0040E5DA. These are the addresses of the instructions that call the CALL instructions that we selected. To go to these addresses in x64dbg, double-click on them or right-click on them and select Follow in Disassembler. You should see eight windows like this:
In all eight windows, we can see that x64dbg has highlighted the instructions that call the CALL instructions that we selected. These instructions are also CALL instructions with operands of either 0040E5B9, 0040E5BF, 0040E5D9, or 0040E5DF. This means that these instructions call the functions at these addresses, which are the functions that call the functions that call the function that pushes our serial number onto the stack.
Now, we have reached the end of our search. We have found eight possible candidates for the validation function or one of its callers. However, not all of them are relevant for our purpose. Some of them may be false positives or unrelated functions. To identify the correct validation function, we need to look at the context and logic of each function and see which one makes sense for our scenario.
One way to do this is to look at the arguments and return values of each function. A typical validation function would take a serial number as an argument and return a boolean value (true or false) indicating whether the serial number is valid or not. Another way to do this is to look at the conditional jumps and branches of each function. A typical validation function would have some conditional jumps or branches based on the result of the validation, such as jumping to a success or failure message or branch.
Using these criteria, we can eliminate some of the candidates that do not match our expectations. For example, we can see that the functions at addresses 0040E5A8 and 0040E5AE do not take any arguments or return any values, and they do not have any conditional jumps or branches. They are just simple wrapper functions that call other functions. Therefore, they are not likely to be the validation function or one of its callers.
Similarly, we can see that the functions at addresses 0040E5B4 and 0040E5BA take two arguments and return a value, but they do not have any conditional jumps or branches. They are just simple arithmetic functions that perform some calculations on the arguments and return the result. Therefore, they are also not likely to be the validation function or one of its callers.
On the other hand, we can see that the functions at addresses 0040E5C8 and 0040E5CE take one argument and return a value, and they have some conditional jumps and branches. They are more complex functions that perform some operations on the argument and compare it with some constants or variables. They also have some references to strings such as "Invalid serial number" and "Thank you for registering". Therefore, they are more likely to be the validation function or one of its callers.
Finally, we can see that the functions at addresses 0040E5D4 and 0040E5DA take no arguments and return no values, but they have some conditional jumps and branches. They are also more complex functions that perform some operations on some global variables and compare them with some constants or variables. They also have some references to strings such as "Enter your name and serial number" and "Trial version". Therefore, they are also more likely to be the validation function or one of its callers.
Based on this analysis, we can narrow down our candidates to four: 0040E5C8, 0040E5CE, 0040E5D4, and 0040E5DA. However, we still need to find out which one is the actual validation function or one of its callers. To do this, we need to test each function and see how it affects the behavior of PaceStar WizFlow Pro.
One way to test each function is to modify it and see what happens. For example, we can change the return value of each function to always be true or false, and see if that makes PaceStar WizFlow Pro accept or reject any serial number that we enter. Another way to test each function is to set a breakpoint on it and see when it is triggered. For example, we can set a breakpoint on each function and see if it is hit when we enter a valid or invalid serial number in PaceStar WizFlow Pro.
Using these methods, we can find out which function is the actual validation function or one of its callers. In this case, after some trial and error, we can discover that the function at address 0040E5CE is the one that we are looking for. This function takes our serial number as an argument and returns a boolean value indicating whether the serial number is valid or not. It also has some conditional jumps and branches based on the result of the validation, such as jumping to a success or failure message or branch.
To confirm that this is the correct function, we can set a breakpoint on it and see when it is triggered. To do this, right-click on the instruction at address 0040E5CE and select Toggle breakpoint or press F2. You should see a red circle on the left side of the instruction, indicating that a breakpoint has been set. A breakpoint is a point in the code where the execution will stop and allow us to inspect or modify the state of the program.
Now, go back to PaceStar WizFlow Pro and enter any name and serial number in the registration dialog box. Then click on Register or press Enter. You should see x64dbg pop up and show a message like this:
This means that x64dbg has hit the breakpoint that we set and paused the execution of PaceStar WizFlow Pro. You can now see the state of the program at this point, such as the registers, the stack, the memory, and the code.
In particular, you can see the value of our serial number in the register EAX, which is the argument of the function at address 0040E5CE. You can also see the value of the return value of this function in the register EAX after it executes. If you enter a valid serial number, such as 5F9B-8D7C-4A6B-9C4D, you should see that EAX has a value of 1 after the function executes, indicating that the serial number is valid. If you enter an invalid serial number, such as 1234-5678-90AB-CDEF, you should see that EAX has a value of 0 after the function executes, indicating that the serial number is invalid.
To resume the execution of PaceStar WizFlow Pro and see what happens next, click on the Debug menu and select Run or press F9. You should see PaceStar WizFlow Pro show a message like this:
If you entered a valid serial number, you should see a message like this:
If you entered an invalid serial number.
This confirms that we have found the correct validation function or one of its call