GDB tutorial
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This document provides instructions for using the GDB debugger. It covers starting GDB and setting breakpoints, running and stepping through code, retrieving variable values, and debugging segmentation faults. Specifically: 1. It explains how to start GDB on an executable, set breakpoints, delete breakpoints, and run shell commands from within GDB. 2. It describes commands for running the program, listing code, stepping through code line-by-line or into functions, and continuing execution until the next breakpoint. 3. It details how to display, watch, and change the values of variables, call functions, and determine variable types. 4. It provides guidance on debugging segmentation faults by compiling with
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meetups.mulesoft.com
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Key Highlights:
Dedicated AI agents for every stage: Coding, Testing (MUnit), Documentation, Code Review, and Migration
curietech.ai
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curietech.ai
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medium.com
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DataWeave automation: Generate mappings from tables or samples—95%+ complete within minutes
linkedin.com
+7
curietech.ai
+7
medium.com
+7
Integration flow generation: Auto-create Mule flows based on specifications—speeds up boilerplate development
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medium.com
+1
Efficient code reviews: Gain intelligent feedback on flows, patterns, and error handling
youtube.com
+8
curietech.ai
+8
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Test & documentation automation: Auto-generate MUnit test cases, sample data, and detailed docs from code
curietech.ai
+5
curietech.ai
+5
medium.com
+5
Why Now?
Achieve 10× productivity gains, slashing development time from hours to minutes
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medium.com
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Maintain high accuracy with code quality matching or exceeding manual efforts
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Ideal for developers, architects, and teams wanting to scale MuleSoft projects with AI efficiency
Conclusion:
CurieTech AI transforms MuleSoft development into an AI-accelerated workflow—letting you focus on innovation, not repetition.
You are not excused! How to avoid security blind spots on the way to production
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Lessons Learned from Developing Secure AI Workflows.pdf
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The Future of Technology: 2025-2125 by Saikat Basu.pdf
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PyCon SG 25 - Firecracker Made Easy with Python.pdf
PyCon SG 25 - Firecracker Made Easy with Python.pdfMuhammad Yuga Nugraha Explore the ease of managing Firecracker microVM with the firecracker-python. In this session, I will introduce the basics of Firecracker microVM and demonstrate how this custom SDK facilitates microVM operations easily. We will delve into the design and development process behind the SDK, providing a behind-the-scenes look at its creation and features. While traditional Firecracker SDKs were primarily available in Go, this module brings a simplicity of Python to the table.
Information Security Response Team Nepal_npCERT_Vice_President_Sudan_Jha.pdf
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You are not excused! How to avoid security blind spots on the way to production
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GDB tutorial
- 1. GDB - Tutorial c Anurag ([email protected]) March 9, 2006 1 Starting and invoking gdb 1. Inserting debugging information inside the output executable
- 2. les created after compilation and to start debugging session. $ gcc -o fact fact.c -g $ gdb fact 2. Giving shell commands from within gdb (gdb) shell clear 3. Set breakpoint at the function main() (gdb) break main 4. Delete break point number 1 (gdb) delete 1 Note: Pressing enter with no command executes the previous command 2 Running and navigating in gdb 1. Run program to be debugged (gdb) run 2. See where program stopped (gdb) list 3. Execute next line of the program (gdb) next (gdb) n 4. Step inside (gdb) step 1
- 3. 5. Print stack trace (gdb) where (gdb) frame 0 (gdb) frame 1 6. Return back from function (gdb) return 7. Continue execution until the next break point. (gdb) continue 3 Retrieving values of variables 1. Display the value of a variable "i" (gdb) display i 2. Set hardware/software watch point for variable "i" (gdb) watch i 3. Print the value of variable "i" (gdb) print i 4. Print the address of variable "i" (gdb) print &i 5. Reassign a value to n (gdb) set variable n=6 (gdb) continue 6. Call fact() function with dierent parameters. (gdb) call fact(4) 7. Display the data type of a variable: (gdb) ptype i (gdb) whatis i 4 Segmentation faults 1. Segmentation faults Here we compile and execute a program with results in a segmentation fault. The snapshot of memory is saved in a
- 4. le called core $ gcc -o demo demo.c -g 2
- 5. $ gdb demo core (gdb) disassembly note: sethi = an assembly instruction A Made with L TEX 3