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2024

Building an Agentic Web Scraping Pipeline for Crypto and Meme Coins

How to Build an Agentic Web Scraping Pipeline for Crypto and Meme Coins

Agentic web scraping revolutionizes data collection by leveraging advanced scraping tools and LLM-based reasoning to analyze websites for actionable insights. This guide demonstrates how to build a closed-loop pipeline for analyzing popular crypto and meme coin websites to enhance trading strategies.


Websites to Scrape

The following websites will serve as data inputs for the pipeline:

  1. Movement Market
    Facilitates buying and selling meme coins with email and credit card integration.

  2. Raydium
    A decentralized exchange for trading tokens and coins.

  3. Jupiter
    A platform for seamless token swaps.

  4. Rugcheck
    A tool for evaluating meme coins and identifying scams.

  5. Photon Sol
    A browser-based solution for trading low-cap coins.

  6. Cielo Finance
    Offers a copy-trading platform to follow top-performing wallets.


Step 1: Structuring Data for Public Websites

For effective analysis, raw HTML data from these websites must be structured into human-readable Markdown.

Tool: Firecrawl

Use Firecrawl to scrape and format the websites:

Example: Scraping Movement Market

import requests

FIRECRAWL_API = "https://api.firecrawl.com/v1/scrape"
API_KEY = "your_firecrawl_api_key"

def scrape_with_firecrawl(url):
    headers = {"Authorization": f"Bearer {API_KEY}"}
    data = {"url": url, "output": "markdown"}
    response = requests.post(FIRECRAWL_API, json=data, headers=headers)

    if response.status_code == 200:
        return response.json().get("markdown")
    else:
        print(f"Error: {response.status_code} - {response.text}")
        return None

markdown_data = scrape_with_firecrawl("https://movement.market/")
print(markdown_data)

Repeat the process for all listed websites to create structured Markdown files.


Step 2: Analyze Public Data with Reasoning Agents

Once the data is structured, LLMs can be used to analyze trends, extract features, and provide actionable insights.

Example: Analyzing Data with OpenAI API
import openai

openai.api_key = "your_openai_api_key"

def analyze_markdown(markdown_data):
    response = openai.Completion.create(
        model="text-davinci-003",
        prompt=f"Analyze this Markdown data to identify trading opportunities and community sentiment:\n\n{markdown_data}",
        max_tokens=1000
    )
    return response.choices[0].text.strip()

markdown_example = "# Example Markdown\nThis is an example of markdown content for analysis."
analysis = analyze_markdown(markdown_example)
print(analysis)

Step 3: Scraping Private Data with Web Automation

For websites requiring interaction (e.g., logins or dynamic content), use Python's Playwright library with AgentQL for advanced navigation and data extraction.

Example: Scraping Photon Sol with Playwright and AgentQL

Install Playwright and AgentQL:

pip install playwright
playwright install

Write the Python Script:

from playwright.sync_api import sync_playwright

def scrape_photon_sol():
    with sync_playwright() as p:
        browser = p.chromium.launch(headless=True)
        page = browser.new_page()

        # Navigate to Photon Sol
        page.goto("https://photon-sol.tinyastro.io/")

        # Simulate interactions if needed
        page.wait_for_timeout(3000)  # Wait for the page to load completely
        content = page.content()

        print(content)  # Print or save the page content
        browser.close()

scrape_photon_sol()

This approach ensures data can be extracted even from dynamic websites.


Step 4: Automating the Pipeline

Use Python-based automation tools like Apache Airflow to schedule and run the scraping and analysis pipeline.

Example: Airflow Configuration for the Pipeline
from airflow import DAG
from airflow.operators.python_operator import PythonOperator
from datetime import datetime

def scrape():
    # Add scraping logic for all websites here
    print("Scraping data...")

def analyze():
    # Add analysis logic here
    print("Analyzing data...")

with DAG('crypto_pipeline', start_date=datetime(2024, 11, 25), schedule_interval='@daily') as dag:
    scrape_task = PythonOperator(task_id='scrape', python_callable=scrape)
    analyze_task = PythonOperator(task_id='analyze', python_callable=analyze)

    scrape_task >> analyze_task

Insights from Websites

Here's what you can focus on while analyzing the scraped data:

  1. Movement Market: Review ease of use, transaction speed, and user feedback.
  2. Raydium: Analyze liquidity and trading fees for tokens.
  3. Jupiter: Evaluate swap rates and platform efficiency.
  4. Rugcheck: Identify red flags in meme coin projects to avoid scams.
  5. Photon Sol: Assess platform usability for low-cap token trading.
  6. Cielo Finance: Analyze wallet strategies and portfolio performance.

Step 5: Closing the Loop

To maintain a closed-loop pipeline, configure the workflow to automatically re-scrape websites at regular intervals and update analyses with new data. This ensures decisions are based on the latest information.


Conclusion

By integrating structured scraping, advanced analysis, and automation, this agentic pipeline enables real-time insights into the crypto and meme coin ecosystem. Use the steps outlined above to stay ahead in the volatile world of meme coins while minimizing risks and maximizing returns. 🚀

Installing ROS 1 on Raspberry Pi

Installing ROS 1 on Raspberry Pi

Robot Operating System (ROS) is an open-source framework widely used for robotic applications. This guide walks you through installing ROS 1 (Noetic) on a Raspberry Pi running Ubuntu. ROS 1 Noetic is the recommended version for Raspberry Pi and supports Ubuntu 20.04.


Prerequisites

Before starting, ensure you have the following:

  • Raspberry Pi 4 or later with at least 4GB of RAM (8GB is recommended for larger projects).
  • Ubuntu 20.04 installed on the Raspberry Pi (Desktop or Server version).
  • Internet connection for downloading and installing packages.

Step 1: Set Up Your Raspberry Pi

  1. Update and Upgrade System Packages:
    sudo apt update && sudo apt upgrade -y
    
  2. Install Required Dependencies:
    sudo apt install -y curl gnupg2 lsb-release
    

Step 2: Configure ROS Repositories

  1. Add the ROS Repository Key:

    sudo curl -sSL https://raw.githubusercontent.com/ros/rosdistro/master/ros.asc | sudo apt-key add -
    

  2. Add the ROS Noetic Repository:

    echo "deb http://packages.ros.org/ros/ubuntu $(lsb_release -sc) main" | sudo tee /etc/apt/sources.list.d/ros-latest.list
    

  3. Update Package List:

    sudo apt update
    


Step 3: Install ROS 1 Noetic

  1. Install the Full ROS Desktop Version:

    sudo apt install -y ros-noetic-desktop-full
    

  2. Verify the Installation: Check the installed ROS version:

    rosversion -d
    
    This should return noetic.


Step 4: Initialize ROS Environment

  1. Set Up ROS Environment Variables:

    echo "source /opt/ros/noetic/setup.bash" >> ~/.bashrc
    source ~/.bashrc
    

  2. Install rosdep: rosdep is a dependency management tool for ROS:

    sudo apt install -y python3-rosdep
    

  3. Initialize rosdep:

    sudo rosdep init
    rosdep update
    


Step 5: Test the ROS Installation

  1. Run roscore: Start the ROS master process:

    roscore
    
    Leave this terminal open.

  2. Open a New Terminal and Run turtlesim: Launch a simple simulation:

    rosrun turtlesim turtlesim_node
    

  3. Move the Turtle: Open another terminal and control the turtle using:

    rosrun turtlesim turtle_teleop_key
    
    Use the arrow keys to move the turtle in the simulation.


Step 6: Install Additional ROS Tools

To enhance your ROS setup, install the following:

  1. catkin Tools:

    sudo apt install -y python3-catkin-tools
    

  2. Common ROS Packages:

    sudo apt install -y ros-noetic-rviz ros-noetic-rqt ros-noetic-rqt-common-plugins
    

  3. GPIO and Hardware Libraries (for Pi-specific projects):

    sudo apt install -y wiringpi pigpio
    


Troubleshooting

  • Issue: rosdep not initializing properly.
    Fix: Ensure network connectivity and retry:

    sudo rosdep init
    rosdep update
    

  • Issue: ROS environment variables not set.
    Fix: Manually source the ROS setup file:

    source /opt/ros/noetic/setup.bash
    


Conclusion

Your Raspberry Pi is now configured with ROS 1 Noetic, ready for robotic projects. With this setup, you can develop and deploy various ROS packages, integrate hardware, and experiment with advanced robotic systems.

Happy building!

Harminder Singh Nijjar's Digital Art Catalog

2024-11-25: While sitting on the dining table drinking a Celsius Peach Vibe, I decided to create a quick digital drawing of the can next to a container of JIF peanut butter. The drawing was done on my MobiScribe WAVE using the stylus that came with the device. The MobiScribe WAVE is a great tool for digital art, and I enjoy using it for quick sketches and drawings. JIF + Celsius Peach Vibe

2024-11-26 20:17: Today I drew a quick sketch of two wolf pups howling at the moon. Full Moon Pups

Agentic Web Scraping in 2024

Web scraping best practices have evolved significantly in the past couple of years, with the rise of agentic web scraping marking a new era in data collection and analysis. In this post, we'll explore the concept of agentic web scraping, its benefits, and how it is transforming the landscape of data-driven decision-making.

Evolution of Web Scraping

Typically, web scraping involved extracting data from websites by mimiking browser behaviour through HTTP requests and web automation frameworks like Selenium, Puppeteer, or Playwright. This process required developers to write specific code for each website, making it time-consuming, error-prone, and susceptible to changes in website structure. So much so that 50% to 70% of engineering resources in data aggregation teams were spent on scraping stystems early on. However, with the advent of agentic web scraping, this approach has been revolutionized. LLMs are able to make sense of any data thrown at them, allowing them to understand large amounts of raw HTML and make decisions based on it.

This comes with a drawback, however. The more unstructured data you throw at an LLM, the more likely it is to make mistakes and the more tokens are consumed. This is why it's important to have as close to structured, human-readable data as possible.

Structuring Data for Agentic Web Scraping

In order to be able to use LLM Scraper Agents and Reasoning Agents, we need to convert raw HTML data into a more structured format. Markdown is a great choice for this, as it is human-readable and easily parsed by LLMs. After converting scraped data into structured markdown, we can feed it into LLM Scraper Agents and Reasoning Agents to make sense of it and extract insights.

Web Scraper Agents for Public Data

Public data is data that is freely available on the web, such as news articles, blog posts, and product descriptions. This data can be scraped and used for various purposes and does not require any special permissions such as bypassing CAPTCHAs or logging in.

Some APIs that can be used to convert raw HTML data into structured markdown include:

Firecrawl

Firecrawl turns entire websites into clean, LLM-ready markdown or structured data. Scrape, crawl and extract the web with a single API

Output: Good quality markdown with most hyperlinks preserved

Rate limit: 1000 requests per minute

Cost: $0.06 per 100 pages

Jina

Turn a website into a structured data by adding r.jina.ai in front of the URL.

Output: Focuses primarily on extracting content rather than preserving hyperlinks

Rate limit: 1000 requests per minute

Cost: Free

Spider Cloud

Spider is a leading web crawling tool designed for speed and cost-effectiveness, supporting various data formats including LLM-ready markdown.

Output: Happy medium between Firecrawl and Jina with good quality markdown

Rate limit: 50000 requests per minute

Cost: $0.03 per 100 pages

Web Scraper Agents for Private Data

As mentioned earlier, web automation frameworks like Selenium, Puppeteer, or Playwright are used to scrape private data that requires interaction to access restricted areas of a website. These tools can now be used to build agentic web scraping systems that can understand and reason about the data they collect. However, the issue with these tools is determining which UI elements to interact with to access the abovementioned restricted areas of a site. This is where AgentQL comes in.

AgentQL

AgentQL allows web automation frameworks to accurately navigate websites, even when the website structure changes.

Rate limit: 10 API calls per minute

Cost: $0.02 per API call

Using AgentQL in conjunction with web automation frameworks enables developers to build agentic web scraping systems that can access and reason about private data, making the process more efficient and reliable.

How AgentQL Works

Some examples of actions we're able to perform with AgentQL along with Playwright or Selenium include:

  • Save and load authenticated state
  • Wait for a page to load
  • Close a cookie dialog
  • Close popup windows
  • Compare product prices across multiple websites

Conclusion

Agentic web scraping is transforming the way data is collected and analyzed, enabling developers to build systems that can understand and reason about the data they collect. By structuring data in a human-readable format like markdown and using tools like LLM Scraper Agents, Reasoning Agents, and AgentQL, developers can create efficient and reliable web scraping systems that can access both public and private data. This new approach to web scraping is revolutionizing the field of data-driven decision-making and opening up new possibilities for data analysis and insights.

My First Blog Post

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Using Crosshair.AHK to Assist with Aiming on Xbox Cloud Gaming

Using Crosshair.AHK to Assist with Aiming on Xbox Cloud Gaming

Crosshair.AHK

I recently started playing games on Xbox Cloud Gaming on PC, and I noticed that the aim assist with reWASD wasn't as powerful as I had initially expected. I decided to use Crosshair.AHK to help me aim better. Crosshair.AHK is a simple script that displays a crosshair on your screen to help you aim better in games. In this post, I will show you how to use Crosshair.AHK to assist with aiming in Fortnite on Xbox Cloud Gaming.

Features of Crosshair.AHK

10 different crosshair variations, customizable colors, and fullscreen support.

Crosshair.AHK has several features that make it a great tool for improving your aim in games. Some of the key features include:

  • 10 different crosshair styles
  • Customizable crosshair colors
  • Fullscreen crosshair support

Crosshair Styles

Crosshair.AHK offers 10 different crosshair styles to choose from, allowing you to find the one that works best for you. The crosshair styles range from simple dots to more complex designs, giving you plenty of options to customize your crosshair to your liking. Crosshair styles can be easily changed by pressing the F10 key.

Customizable Crosshair Colors

Crosshair.AHK allows you to customize the color of your crosshair to suit your preferences. You can choose from a wide range of colors to find the one that stands out the most against your game's background. Crosshair colors can be easily changed by pressing the F10 key and using the color change widget to select the desired color.

Fullscreen Crosshair Support

Crosshair in fullscreen mode.

Crosshair.AHK supports fullscreen mode, allowing you to use the crosshair in games that run in fullscreen. This feature is particularly useful for games that don't have built-in crosshairs or where the crosshair is difficult to see against the game's background. To enable fullscreen mode, simply press the F11 key.

Setting up Camera.UI on Docker for Windows

Setting up Camera.UI on Docker for Windows

Overview

This guide outlines the process for setting up Camera.UI on Docker for Windows. Camera.UI is a versatile NVR-like Progressive Web App (PWA) designed to manage RTSP-capable cameras. With features like live streams, motion detection, and notifications, it provides a robust solution for home automation and monitoring.

Prerequisites

Before proceeding, ensure the following prerequisites are met:

  • Docker Desktop is installed and running on your Windows system.
  • Your RTSP-capable cameras are configured and accessible.
  • Basic familiarity with Docker commands.
  • Internet connectivity for pulling Docker images.

Setup Steps

Step 1: Pull the Camera.UI Docker Image

  1. Open Command Prompt or PowerShell.
  2. Pull the Docker image for Camera.UI:
    docker pull camera.ui-linux
    

Step 2: Run the Container

Run the Camera.UI container using the following command:

docker run -d -p 8081:8081 --name camera-ui --restart unless-stopped camera.ui-linux
- -d: Runs the container in detached mode. - -p 8081:8081: Maps the container’s port 8081 to the host’s port 8081. - --name camera-ui: Names the container camera-ui. - --restart unless-stopped: Ensures the container restarts on system reboot or Docker daemon restarts.

Step 3: Access the Web Interface

  1. Open your browser and go to:
    http://localhost:8081
    
  2. Log in with the default credentials:
  3. Username: master
  4. Password: master
  5. Change your username and password immediately for security.

Step 4: Configure Camera.UI

  1. After logging in, go to the settings panel.
  2. Add your RTSP-capable cameras:
  3. Provide the RTSP stream URL for each camera.
  4. Configure additional settings like motion detection, zones, or notifications.

Step 5: Verify Restart Policy (Optional)

To ensure the container is set to restart automatically, verify the restart policy: 1. Run:

docker inspect camera-ui | findstr RestartPolicy
(For PowerShell, use Select-String instead of findstr). 2. Ensure the output includes:
"RestartPolicy": {
    "Name": "unless-stopped",
    "MaximumRetryCount": 0
}

Managing the Container

Start and Stop

  • Start the container:
    docker start camera-ui
    
  • Stop the container:
    docker stop camera-ui
    

View Logs

  • To view the container logs:
    docker logs camera-ui
    

Remove the Container

If you ever need to remove the container without losing your data, make sure your container's data is mapped to a persistent volume. Otherwise, you can remove the container with:

docker rm -f camera-ui

Step 6: Update the Container

If a new version of Camera.UI is released, update the container as follows: 1. Stop and remove the existing container:

docker stop camera-ui
docker rm camera-ui
2. Pull the latest image:
docker pull camera.ui-linux
3. Re-run the container with the same settings:
docker run -d -p 8081:8081 --name camera-ui --restart unless-stopped camera.ui-linux

Troubleshooting

Common Issues

  • Port Conflict: If port 8081 is already in use, choose another port:

    docker run -d -p 8082:8081 --name camera-ui --restart unless-stopped camera.ui-linux
    
    Access it via http://localhost:8082.

  • Logs Not Showing: Use:

    docker logs camera-ui
    

  • Web Interface Not Accessible: Ensure Docker Desktop is running and your firewall isn't blocking port 8081.

Error: spawn ffmpeg ENOENT

If you encounter an error related to ffmpeg: 1. Update the Dockerfile to install ffmpeg:

RUN apt-get update && apt-get install -y \
    curl \
    build-essential \
    nodejs \
    npm \
    ffmpeg \
    && apt-get clean
2. Rebuild and restart the container.

Dockerfile for Camera.UI

# Use a lightweight Debian base image
FROM debian:latest

# Set environment variables
ENV NODE_ENV=production
ENV NPM_CONFIG_PREFIX=/home/camerauser/.npm-global
ENV PATH=$PATH:/home/camerauser/.npm-global/bin

# Update and install necessary packages
RUN apt-get update && apt-get install -y \
    curl \
    build-essential \
    nodejs \
    npm \
    ffmpeg \
    && apt-get clean

# Install the correct Node.js version (20.x)
RUN curl -fsSL https://deb.nodesource.com/setup_20.x | bash - \
    && apt-get install -y nodejs

# Update npm to the latest version
RUN npm install -g npm@10.9.1

# Create a non-root user for security
RUN useradd -ms /bin/bash camerauser

# Install the camera.ui package globally
RUN npm install -g camera.ui@latest --unsafe-perm

# Set up directories and permissions for camera.ui
RUN mkdir -p /home/camerauser/.npm-global /home/camerauser/.camera.ui && \
    chmod 700 /home/camerauser/.camera.ui && \
    chown -R camerauser:camerauser /home/camerauser

# Set the working directory
WORKDIR /home/camerauser

# Expose the port for camera.ui
EXPOSE 8081

# Command to start camera.ui
CMD ["camera.ui", "--no-sudo", "--storage-path", "/home/camerauser/.camera.ui"]

Cost and Resources Discussion Board

Cost and Resources Discussion Board Assignment

Due: Nov 8 at 11:59pm Course: PROJ100 45520 - F24 - Intro to Project Mgmt

Describe the 3 primary types of estimates in 1 paragraph.

The three primary types of cost estimates in project management are analogous estimating, parametric estimating, and bottom-up estimating. Analogous estimating uses historical data from similar projects to estimate costs, relying on expert judgment and is often used when there is limited information available (Project Management Institute [PMI], 2017). Parametric estimating involves statistical modeling, utilizing known parameters, such as cost per unit, to predict costs with a higher level of accuracy depending on the data quality (PMI, 2017). Bottom-up estimating is the most detailed and accurate method, where costs are estimated at the most granular level of work, such as individual tasks or activities, and then aggregated to determine total project costs (PMI, 2017).

Explain how time/schedule impacts the quantity of resources, and how resources impact the final cost in 1 paragraph.

The project schedule impacts the quantity of resources needed and influences the final cost (PMI, 2017). A tighter schedule may require additional resources, like more workers or expedited shipping, to meet deadlines, while a flexible timeline allows for fewer resources over a longer period, potentially reducing costs (PMI, 2017). When deadlines are tight, costs can increase due to overtime pay or rush fees. Proper scheduling, especially when resources are shared across projects, helps avoid conflicts and unplanned expenses (PMI, 2017). Effective scheduling supports efficient resource use, keeping project costs manageable.

Describe how the critical path and the length of the project impacts the total cost in 1 paragraph.

The critical path is the longest sequence of tasks that must be completed on time for the project to finish by its deadline, directly impacting the project’s duration and total cost (PMI, 2017). Since the critical path dictates the minimum time needed, any delays here will extend the project’s timeline, leading to higher costs due to prolonged resource use and delayed revenue generation (PMI, 2017). A longer project means resources like labor and equipment are used over a more extended period, increasing operational expenses. The critical path and project length are essential in shaping total costs by affecting resource usage and exposure to potential cost fluctuations.

Explain how cost is monitored during the execution of the project in 1 paragraph.

Cost monitoring during project execution involves evaluating actual versus planned costs, guided by the cost baseline (PMI, 2017). Earned Value Management (EVM) is crucial here, as it combines scope, schedule, and cost baselines to track project performance. Techniques like variance analysis (for cost and schedule deviations) and forecasting (predicting future trends) are used alongside metrics such as the Cost Performance Index (CPI) and Schedule Performance Index (SPI) to assess cost efficiency and schedule adherence. All results are documented as work performance information for stakeholder updates and decision-making (PMI, 2017).

Describe how resources are assigned in a schedule in at least 1 paragraph.

The assignment of resources in a schedule involves a structured allocation of resources such as team members, equipment, and materials to specific project tasks or activities. This process is crucial to ensure that resources are available when needed, thus preventing delays and optimizing efficiency. Project managers typically uses tools and techniques like resource calendars and the project management information system (PMIS) to determine the availability and allocation of resources (PMI, 2017). The resource calendar helps identify the working days and hours for each resource, while the PMIS aids in organizing, managing, and monitoring resource assignments. By effectively assigning resources in the schedule, the project manager ensures that tasks are completed within their planned timeframes, which is vital for maintaining the overall project timeline and budget (PMI, 2017).

Describe 3 different types of resources (hint: people are one type) in 1 paragraph.

In project management, resources are broadly categorized into three types: human resources, physical resources, and financial resources. Human resources, or people, refer to the project team members who have assigned roles and responsibilities critical to the project's success (PMBOK® Guide, 2017). These individuals contribute their skills, expertise, and efforts to perform project tasks and achieve objectives. Physical resources include tangible assets such as equipment, materials, facilities, and infrastructure necessary for the project's execution (PMBOK® Guide, 2017). Effective management of physical resources ensures that these assets are available at the right time and place to prevent delays and optimize project performance. Financial resources encompass the budgetary funds allocated for project activities, covering costs related to labor, materials, and other expenses needed to deliver the project within its financial constraints (PMBOK® Guide, 2017). Together, these resources are integral to the planning, execution, and successful completion of a project, requiring careful management to align with the project goals and timelines.

QIDI Plus 4 Winter Redemption Arc – Removing Back Panel and SSR Check Update

Introduction

Yesterday I heard back from QIDI Tech support regarding the issues I've been facing with my QIDI Plus 4 3D printer. I want to start by thanking everyone who responded to my post yesterday regardeless of the tone of the response. I appreciate the concern and harmony in the community. I also want to apologize for any confusion caused by my previous posts. I understand that my initial posts may have caused some alarm, and I want to clarify that my intention was to share my experience and raise awareness about potential safety concerns with the QIDI Plus 4. I did not intend to spread fear or misinformation, and as such I have removed by previous post and also provided images of the back panel removal and SSR check process.

The Back Panel Removal Process

I removed the back panel of the QIDI Plus 4 to access the Solid State Relay (SSR) board and inspect it for any signs of damage or overheating. The process was straightforward, requiring only a few tools and careful handling to avoid damaging any components. Here are the steps I followed to remove the back panel:

  1. Power Off and Unplug: Before starting, I powered off the printer and unplugged it from the power source to ensure safety.
  2. Remove the Screws: Using an Allen key, I removed the screws holding the back panel in place.
  3. Gently Pull the Panel: With the screws removed, I gently pulled the back panel away from the printer to expose the internal components.
  4. Inspect the SSR Board: Once the panel was removed, I carefully inspected the main board for any signs of discoloration, burning, or damage.
  5. Remove SSR Cover and Check: I removed the SSR cover and checked the SSR board for any visible signs of overheating or damage.
  6. Reassemble the Printer: After inspecting the SSR board, I reassembled the printer by carefully replacing the SSR cover, back panel and securing it with their respective screws.

The SSR Check Results

After inspecting the SSR board, I found no visible signs of damage or discoloration. However there is still a lingering smell of burnt plastic which I have reported to QIDI Tech support back on October 11, 2024 however, I'm not able to determine which component is causing the smell. I will keep you updated on any further developments.



Conclusion

I want to thank the community for their support and understanding as I navigate these issues with my QIDI Plus 4. I will continue to provide updates on my progress and any further actions I take to address the safety concerns and usability issues with the printer.

Week 7 Discussion on Cybercrime Policing

Week 7 Discussion on Cybercrime Policing

Due: Nov 3 at 11:59pm
Course: SOC 305 Cybercrime: A Sociological Perspective

Introduction

In this week's discussion, we delve into the challenges faced by law enforcement agencies in policing cybercrime. Drawing insights from David Wall's video "Policing Cybercrime," we explore the complexities of investigating and prosecuting cybercrimes in the digital age. As technology advances, so do the methods employed by cybercriminals, posing unique obstacles for traditional policing methods. Let's examine the key takeaways from the video and discuss the implications for law enforcement in combating cybercrime.

Key Challenges in Policing Cybercrime

Policing cybercrime presents a formidable challenge for traditional law enforcement agencies. Law enforcement policy and standard practices have evolved to address physical crimes. In contrast, digital cyber threats are constantly adapting, taking advantage of individuals in other jurisdictions where law enforcement may have to navigate complex legal frameworks to prosecute offenders.

The anonymity provided by VPNs, Tor networks, and digital currencies makes it much harder to track down perpetrators of cybercrimes. With the large number of cybercrimes being committed, law enforcement agencies are often overwhelmed and under-resourced without the help of automation and machine learning tools to assist in identifying patterns and potential threats.

Lastly, cybercrime often goes unreported due to the bias of the severity of the crime and victims feeling helpless or embarrassed. This underreporting leads to a shortage of resources to combat cybercrime effectively.

Overall, global cooperation and the use of advanced technologies by every law enforcement agency are required to hold cybercriminals accountable.