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n8n tutorial - Lesson 10: Auto-Generate Google Docs from Data with n8n

n8n tutorial - Lesson 10: Auto-Generate Google Docs from Data with n8n

Hi everyone, in this post we're building a workflow that auto-generates a Google Doc from structured data using n8n — no code, no third-party libraries. This is part of our n8n Workflow Automation Tutorial series and covers the exact pipeline from Session 10, where we built T3-B3-Doc-Generator: a 4-node workflow that copies a template, replaces placeholders, and produces a ready-to-read receipt document in Google Drive.

How to do:

Step 1 — Enable the Google Docs API in Google Cloud Console

Before n8n can write to Google Docs, the API must be active in your Google Cloud project.
  1. Go to Google Cloud Console → APIs & Services → Library.
  2. Search for Google Docs API and click Enable.
  3. Do the same for Google Drive API — both are required for this workflow.

Note — If you followed earlier sessions in this series, you already have an OAuth Client named n8n-sheets-client. You can reuse it for both Google Docs and Google Drive credentials — no need to create a new OAuth Client.

Step 2 — Create Google Docs and Google Drive Credentials in n8n

You need two separate credentials, but both reuse the same OAuth Client you set up in Week 1.
  1. In n8n, go to Credentials → New and choose Google Docs OAuth2. Name it Google Docs (Personal).
  2. Under OAuth Client, select your existing n8n-sheets-client and complete the OAuth flow.
  3. Repeat the same process: create a second credential, choose Google Drive OAuth2, name it Google Drive (Personal), and reuse n8n-sheets-client.

Tip — Reusing one OAuth Client for multiple Google service credentials is a clean pattern: fewer apps to manage in Google Cloud, and authorization is already granted. This is the "use what you already have" principle — always check existing resources before creating new ones.

Step 3 — Create the Google Doc Template with Placeholders

The template is a regular Google Doc with placeholder tokens that the workflow will replace with real data.
  1. Open Google Docs and create a new document. Name it T3-B3-Receipt-Template.
  2. Add a Heading 1 title at the top, then add six labeled fields using this placeholder syntax: <<fieldName>>.
    • Example placeholders: <<vendor>>, <<date>>, <<amount>>, <<category>>, <<payment_method>>, <<note>>.
    • Bold each label (e.g., Vendor:) and leave the placeholder value unbolded.
  3. Copy the document's ID from the URL bar — it looks like 1G7vzOxr8CX6TtbgIsd1mug0di3kZIL4CAZUClSBf_Ro. Save this for later.

Critical note — Do not use {{fieldName}} syntax in your template. n8n treats double curly braces as its own expression syntax, so the template engine will try to evaluate them and throw an error. Use <<fieldName>> instead — it has no conflict with n8n expressions.

Step 4 — Build the Workflow: Manual Trigger and Set Sample Data

Create the workflow T3-B3-Doc-Generator and add the first two nodes to simulate invoice data.
  1. In n8n, create a new workflow and name it T3-B3-Doc-Generator.
  2. Add a Manual Trigger node as the starting point — this lets you test the workflow on demand.
  3. Add an Edit Fields (Set) node. Name it Set Sample Data and define six fields:
    • vendorHighlands Coffee
    • date2026-05-08
    • amount85000
    • categoryFood & Drink
    • payment_methodMoMo
    • noteTeam coffee
  4. Connect Manual Trigger → Set Sample Data.

Tip — Using a Set node to simulate data is the standard testing pattern in n8n workflow automation. Later, when you wire this to a real Google Sheets source, you simply replace this node — the rest of the pipeline stays unchanged.

Step 5 — Add Google Drive Node to Copy the Template

Instead of writing directly into the template, you copy it first so the original stays clean for future runs.
  1. Add a Google Drive node. Set Operation to Copy File.
  2. Set File ID to your template's ID: 1G7vzOxr8CX6TtbgIsd1mug0di3kZIL4CAZUClSBf_Ro.
  3. Set the Name field to a dynamic expression:
    • Use: Receipt {{$json.vendor}} - {{$json.date}} ({{$now.toFormat("HHmmss")}})
    • The HHmmss timestamp prevents duplicate file names when you run the workflow multiple times on the same day.
  4. Set Credential to Google Drive (Personal).
  5. Connect Set Sample Data → Google Drive Copy File.

Production tip — Google Drive — unlike Windows or Linux filesystems — allows multiple files with identical names in the same folder. Without the timestamp suffix, running the workflow twice produces two files named exactly the same, which causes confusion when looking up documents. Always include a timestamp in dynamically generated file names.

Step 6 — Add Google Docs Node to Replace Placeholders

This node opens the newly copied Doc and swaps every placeholder with real data using Find & Replace.
  1. Add a Google Docs node. Set Operation to Update.
  2. Set Document ID by referencing the output of the Drive node: {{$('Google Drive').item.json.id}}.
  3. Set Credential to Google Docs (Personal).
  4. Under Actions, add six Find and Replace Text action cards — one per placeholder:
    • Card 1: Text to find = <<vendor>> | Replace with = {{$('Set Sample Data').item.json.vendor}}
    • Card 2: Text to find = <<date>> | Replace with = {{$('Set Sample Data').item.json.date}}
    • Card 3: Text to find = <<amount>> | Replace with = {{$('Set Sample Data').item.json.amount}}
    • Card 4: Text to find = <<category>> | Replace with = {{$('Set Sample Data').item.json.category}}
    • Card 5: Text to find = <<payment_method>> | Replace with = {{$('Set Sample Data').item.json.payment_method}}
    • Card 6: Text to find = <<note>> | Replace with = {{$('Set Sample Data').item.json.note}}
  5. Connect Google Drive Copy File → Google Docs Update.

Note — The expression ${'NodeName'} (with the node name in quotes) is how you reference data from any upstream node by name in n8n — not just the immediately previous one. This is especially useful when your pipeline branches or when you need to pull data from a node several steps back.

Step 7 — Test the Workflow with Two Sample Datasets

Run the workflow with different inputs to confirm the pipeline is stable and formatting is preserved.
  1. Click Execute Workflow with the Highlands Coffee data already set in Set Sample Data.
  2. Open your Google Drive and find the generated file (e.g., Receipt Highlands Coffee - 2026-05-08 (143022)). Verify all six placeholders were replaced and that Heading 1 formatting and bold labels are intact.
  3. Go back to Set Sample Data and change the values to a second test case:
    • vendorGrab
    • date2026-05-06
    • amount52000
    • categoryTransport
    • payment_methodGrabPay
    • noteRide to office
  4. Execute again and verify the second Doc is created with a different timestamp in its name and all correct values.

Tip — Testing with at least two different datasets is a good habit in n8n google docs automation work. One test confirms it works; two tests confirm the pattern is stable and not dependent on a specific value.

Key Lessons from This Session

  1. Use <<placeholder>> syntax in Google Doc templates, never {{placeholder}}. Double curly braces conflict with n8n's own expression engine and will cause errors at runtime.
  2. Always check what credentials you already have before creating new ones. Reusing an existing OAuth Client (like n8n-sheets-client) for Google Docs and Google Drive saves setup time and keeps your Google Cloud project clean.
  3. Add a timestamp to dynamically generated file names. Google Drive allows duplicate file names — a $now.toFormat("HHmmss") suffix ensures every run produces a uniquely identifiable file.
  4. Copy the template first, then replace placeholders in the copy. Writing directly into the template would destroy it; the Drive Copy File step preserves the original for every future run.
  5. Reference upstream nodes by name using ${'NodeName'}. This lets the Google Docs node pull data from the Set Sample Data node even though they are not directly connected.
  6. List all available options before recommending one. The initial oversight of omitting Google Docs API in favor of Pandoc/docxtemplater/docx-js led to unnecessary complexity — a reminder to evaluate all tools at hand first.

Conclusion:

In this session of our n8n tutorial series, you built a complete 4-node pipeline — Manual Trigger → Set Data → Drive Copy → Docs Update — that auto-generates a formatted Google Doc from structured data without any code. The key insight is that Google Docs' Find & Replace API, combined with n8n's built-in Google Docs node and a clean placeholder convention, gives you a production-ready document generator in under two hours. In the next session, we'll scale this up into a full weekly report workflow: pulling rows from Google Sheets, generating AI-written insights, and saving the final report to a dedicated Drive folder with a Telegram notification.

If you have any questions, feel free to leave a comment below. Thank you!

Tags: n8n google docs automation, n8n tutorial, n8n workflow automation, google docs api n8n, auto generate google docs, n8n google drive, document automation n8n, n8n beginner tutorial

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We Tried Apple's DIY iPhone Battery Replacement Kit—Here's What Happened

We Tried Apple's DIY iPhone Battery Replacement Kit—Here's What Happened

The Verge's Sean Hollister decided to test Apple's Self Service Repair program by swapping the battery on his iPhone 13 mini at home. What he discovered is both fascinating and cautionary. Apple's solution for at-home device repairs looks impressive on paper, but the reality is messier than you'd expect.

Tool kit rental costs 49 USD for a week-long loan, plus a 1,200 USD credit card hold as a security deposit. Apple ships two enormous toolboxes weighing 35.8 kg total.
Tool kit rental costs 49 USD for a week-long loan, plus a 1,200 USD credit card hold as a security deposit. Apple ships two enormous toolboxes weighing 35.8 kg total.

The process starts with an unusual commitment. You pay $49 to rent the toolkit for seven days, but Apple also places a $1,200 hold on your credit card. Lose or damage the equipment, and that deposit vanishes. Then two massive crates arrive at your door—tipping the scales at nearly 80 pounds combined. It's industrial-grade stuff for a home repair job.

Inside the toolboxes: heating apparatus, mounting brackets, instruction manuals, and everything needed for confident self-repair.
Inside the toolboxes: heating apparatus, mounting brackets, instruction manuals, and everything needed for confident self-repair.

What's inside these hefty cases? Apple has thought through the details—heating machine, adhesive guides, securing brackets, comprehensive manuals. The company clearly wants users to succeed, not just muddle through.

First step: soften the adhesive around the display. Hollister placed the iPhone in a heating bag and set it on the heating apparatus.
First step: soften the adhesive around the display. Hollister placed the iPhone in a heating bag and set it on the heating apparatus.

Getting to the battery means opening the phone, and that means dealing with heavy-duty adhesive. Hollister put the iPhone in a special heating pouch and used Apple's heating machine to warm things up. Reasonable enough so far.

First attempt: the machine signaled an error. Hollister checked the manual and realized he needed to rotate a knob to increase suction cup pressure.
First attempt: the machine signaled an error. Hollister checked the manual and realized he needed to rotate a knob to increase suction cup pressure.

Then the hiccup. The machine threw an error on the first try. Back to the manual—Hollister discovered he needed to twist a dial to apply more pressure from the suction cup against the screen. It's the kind of detail that separates a successful repair from a failed one. The real concern is how many users would simply give up at this point.

Screen separated, Hollister removed residual adhesive using Apple's adhesive removal tool and a mounting bracket to keep everything stable.
Screen separated, Hollister removed residual adhesive using Apple's adhesive removal tool and a mounting bracket to keep everything stable.

Once the screen came free, more cleanup was needed. Bits of old adhesive remained, which Hollister scraped away using Apple's purpose-built adhesive removal tool. The mounting brackets kept the phone steady during this tedious process.

Next up: removing screws holding the display cable and speaker connectors using three different screwdriver tips.
Next up: removing screws holding the display cable and speaker connectors using three different screwdriver tips.

The toolkit includes multiple screwdriver bits—three different sizes for the various fasteners securing the display cable and speaker assembly. Small details matter when you're working inside a phone.

The battery swap: Apple supplies a replacement battery in its own pouch, complete with mounting hardware and fresh adhesive strips.
The battery swap: Apple supplies a replacement battery in its own pouch, complete with mounting hardware and fresh adhesive strips.

Then comes the actual battery replacement. Apple includes a new battery in a special pouch, mounting hardware, and pre-cut adhesive strips. Following the instructions, Hollister made the swap.

Final assembly: Hollister stripped away remaining old adhesive to ensure the screen would sit flush, then used Apple's press tool to reseat the display.
Final assembly: Hollister stripped away remaining old adhesive to ensure the screen would sit flush, then used Apple's press tool to reseat the display.

Reassembly is where precision matters most. Any old adhesive residue means the screen won't sit perfectly flat. Hollister carefully peeled away every trace, then used Apple's press tool to firmly seat the display back into the frame. It's meticulous work.

After completion and power-on, the iPhone displays a non-genuine part warning. Hollister had to verify the part via an Apple-authorized verification service using a Wi-Fi-connected computer.
After completion and power-on, the iPhone displays a non-genuine part warning. Hollister had to verify the part via an Apple-authorized verification service using a Wi-Fi-connected computer.

Here's where things get interesting—and annoying. Power the phone back on, and you'll see a warning about non-genuine parts. To clear this, you need a Wi-Fi-connected computer and access to an Apple-authorized verification service. The phone must be powered off, put into diagnostics mode, and a technician must authenticate the component remotely. It's an extra friction point that feels unnecessary for someone who just followed Apple's own instructions.

Total costs: 49 USD rental, 69 USD for the battery (same as authorized repair), plus a 1,200 USD security deposit. Apple covers shipping both ways for the 35 kg toolkit.
Total costs: 49 USD rental, 69 USD for the battery (same as authorized repair), plus a 1,200 USD security deposit. Apple covers shipping both ways for the 35 kg toolkit.

The math: $49 rental fee, $69 for the replacement battery (same price as an authorized repair center charges), plus that hefty $1,200 security hold. Apple does cover both-way shipping for those two enormous cases, which is something.

Hollister's verdict: Apple's DIY repair process isn't easy, and the risk of losing a 1,200 USD deposit looms large. Most users would be better off visiting an authorized repair center.
Hollister's verdict: Apple's DIY repair process isn't easy, and the risk of losing a 1,200 USD deposit looms large. Most users would be better off visiting an authorized repair center.

Here's Hollister's bottom line: Apple's self-repair program is legitimate, but it's not simple. You're staring down a $1,200 deposit risk if anything goes wrong. The procedure requires patience, attention to detail, and a comfort level with delicate component work. For most people, the simpler route is still a trip to the Apple Store or an authorized service provider. That said, Apple deserves credit for offering this option at all—it's genuinely rare in the smartphone industry to get this kind of access to repair tools and documentation.

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The World's 10 Fastest Supercomputers in 2026

The World's 10 Fastest Supercomputers in 2026

The latest Top500 supercomputer rankings reveal a fascinating shift in global computing power. Five of the world's most powerful machines call the United States home, while China and Japan each claim two spots. Finland and Italy round out the top ten with one system each. These rankings come directly from the prestigious Top500 supercomputer project, which tracks the planet's most formidable computing systems.

The Top500 initiative releases updated rankings twice annually—once in late May or early June, and again in November. These findings are presented at major international conferences dedicated to supercomputing. The project has been running continuously since 1993, led by respected researchers including Jack Dongarra from the University of Tennessee Knoxville; Erich Strohmaier and Horst Simon from the U.S. Department of Energy's Lawrence Berkeley National Laboratory; and Hans Meuer from the University of Mannheim.

Article Contents

  • What is a supercomputer?
  • How supercomputer speed is measured
  • The world's top 10 supercomputers

What Exactly is a Supercomputer?

Supercomputers, or High Performance Computers (HPC), represent the cutting edge of computational power. These machines operate at performance levels far beyond what most people can imagine. You'll find them humming away in university research labs, national laboratories, and other critical scientific facilities across the globe.

Supercomputers play an indispensable role in computational science. They tackle extraordinarily complex calculations across numerous fields: quantum mechanics, weather forecasting, climate research, oil and gas exploration, and molecular modeling (which involves calculating the structures and properties of chemical compounds, biological macromolecules, polymers, and crystals). They also run physics simulations—everything from modeling the universe's first moments after the Big Bang to simulating aircraft aerodynamics, spacecraft dynamics, nuclear weapon detonations, and nuclear fusion reactions. Throughout their history, supercomputers have also proven critical for cryptanalysis and code-breaking.

How Do We Measure Supercomputer Speed?

Unlike conventional computers measured in MIPS (million instructions per second), supercomputer performance is measured in FLOPS—floating-point operations per second. By 2015, the fastest machines could execute up to 10 petaFLOPS (that's 10 quadrillion calculations per second), expressed in the unit PFLOPS. Most modern supercomputers run Linux-based operating systems.

The machines on this list are all measured in petaflops. One petaflop equals 10^15 (10 quadrillion) calculations per second. Yes, that's a mind-bogglingly large number.

The World's Top 10 Supercomputers

1. Frontier, United States

Built in 2022 by Hewlett Packard Enterprise in collaboration with its Cray subsidiary, Frontier holds a historic distinction: it's the world's first exascale supercomputer. This means it can perform at least 10^18 calculations per second—a full exaflop of computing power.

Frontier boasts an incredible 8,730,112 cores and achieves 1.1 exaflops during Linpack benchmark tests. The system uses HPE's latest Cray EX235a architecture, combining 64-core AMD EPYC 7A53 processors running at 2GHz with AMD MI250X GPUs. What's particularly impressive is its energy efficiency ranking of 52.23 gigaflops per watt, making it the world's most power-efficient supercomputer. Each of its 74 computing cabinets weighs approximately 3.63 tons, and the entire system cost roughly $600 million to build.

2. Fugaku, Japan

Performance: 442.010 petaflops, peak efficiency 537.212 petaflops

Fugaku supercomputer
Fugaku supercomputer

Developed by Fujitsu and installed at RIKEN's Center for Computational Science (R-CCS) in Kobe, Fugaku smashed the previous world record with 442 petaflops—more than three times faster than the second-ranked system on this list. RIKEN's director, Satoshi Matsuoka, noted that they finally achieved something significant: "we could use the entire machine instead of just a small fraction of it."

After the initial rankings, Matsuoka's team spent months fine-tuning the code to squeeze maximum performance from the system. His assessment? "I don't think we can improve much further than this."

3. Aurora, United States

Aurora represents one of the newest entries on this list, with potential to become the most powerful machine in the coming years.

This supercomputer delivers 585 petaflops (0.59 exaflops) and resides at Argonne National Laboratory in Illinois. It's the second exascale system ever built. Aurora is a joint creation of Intel and HPE, having gone live in June 2023. The system integrates scientific tools and analytics, executing modeling, simulations, and artificial intelligence workloads.

According to ALCF representatives, Aurora has the potential to reach 2 exaflops—double Frontier's power. Its computational muscle could generate accurate models across multiple domains: climate prediction, materials science, energy storage, and nuclear fusion research. The real concern is nuclear fusion—that's where Aurora's power is being primarily directed.

4. Eagle, United States

Unlike other supercomputers confined to laboratory facilities, Eagle operates as part of Microsoft's broader Azure cloud data center infrastructure. This means anyone with an Azure account can access its computational power through the cloud platform.

Eagle delivers 561 petaflops (0.56 exaflops) and became operational in August 2023. Microsoft equipped this machine with 48-core Intel Xeon Platinum 8480C processors using Sapphire Rapids architecture, paired with Nvidia H100 GPUs running Hopper architecture. The system totals 1.1 million processing cores.

5. LUMI, Finland

LUMI (Large Unified Modern Infrastructure) was constructed by HPE in 2022 and deployed in Finland, where it became Europe's fastest supercomputer. The system contains 1,110,144 cores and achieves 151.9 petaflops.

LUMI runs on identical processors as Frontier and achieves an energy efficiency rating of 51.63 gigaflops per watt, making it the world's second-most power-efficient supercomputer.

6. Leonardo, Italy

Leonardo utilizes Intel Xeon Platinum 8358 32-core processors combined with Nvidia A100 and HDR100 processing chips, delivering 238.7 petaflops of computing power. The system began operations in November 2022 at Bologna and cost $240 million to construct. Intel and Nvidia jointly handle the software infrastructure running the machine.

7. Summit, United States

Performance: 148.600 petaflops, peak efficiency 200.795 petaflops

Summit supercomputer

Based at Oak Ridge National Laboratory (ORNL) in Tennessee, Summit was built by IBM and stands as America's fastest supercomputer. It launched in 2018 with 148.8 petaflops of performance, powered by 2,282,544 IBM Power9 cores and 2,090,880 Nvidia Volta GV100 cores across 4,356 nodes. Each node contains two 22-core Power9 CPUs and six Nvidia Tesla V100 GPUs.

Recently, two research teams working on Summit won the prestigious Gordon Bell Prize for outstanding achievement in high-performance computing—often called the "Nobel Prize of supercomputing."

8. Sierra, United States

Performance: 94.640 petaflops, peak efficiency 125.712 petaflops

Sierra supercomputer
Sierra supercomputer

Housed at Lawrence Livermore National Laboratory (LLNL) in California, Sierra achieved an HPL benchmark score of 94.6 petaflops. Its 4,320 nodes each feature two Power9 CPUs and four Nvidia Tesla V100 GPUs, giving it an architecture nearly identical to Summit's design.

Sierra also ranked 15th on the Green500 list of the world's most energy-efficient supercomputers.

9. Sunway TaihuLight, China

Performance: 93.015 petaflops, peak efficiency 125.436 petaflops

Sunway TaihuLight supercomputer

Installed at China's National Supercomputing Center in Wuxi, Sunway TaihuLight once held the number one ranking for two consecutive years (2016 and 2017). However, its position has steadily declined since then. It dropped to third place a year ago and now ranks fourth.

Built by China's National Research Center of Parallel Computer Engineering and Technology (NRCPC), Sunway TaihuLight achieved 93 petaflops on the HPL benchmark. The system uses exclusively homegrown Sunway SW26010 processors—a significant point of national pride for China's computing independence.

10. Perlmutter, United States

Performance: 64.6 petaflops, peak efficiency 89.795 petaflops

Perlmutter stands as the only brand-new system making its debut on the top 10 list this cycle. Built on the HPE Cray Shasta platform, it combines AMD EPYC nodes with 1,536 Nvidia-accelerated A100 nodes for its processing architecture.

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Best Tools for Running LLM Models on Your Personal Computer

On
Best Tools for Running LLM Models on Your Personal Computer

Large language models are evolving at breakneck speed. While cloud-based AI solutions offer convenience, there's a compelling case for running LLMs directly on your own machine. You get better privacy, offline functionality, and complete control over your data and models. In this guide, we'll walk you through the best tools available for running LLM models locally on your PC.

Why Run LLMs Locally?

  • Data Privacy: You maintain complete control over your information, ensuring sensitive data never reaches third-party servers.
  • Offline Capability: Use AI even without an internet connection.
  • Full Customization: Fine-tune models to match your specific needs and use cases.
  • Cost Savings: No recurring subscription fees like you'd pay for cloud-based AI platforms.

The Best Tools for Running LLM Models Locally

Here are seven solid options for running LLMs on your computer, complete with the strengths and limitations of each.

AnythingLLM

AnythingLLM is an open-source AI application that lets you run LLMs directly on your machine. It enables you to chat with documents, deploy AI agents, and handle various AI tasks while keeping all your data stored locally.

The architecture consists of three main components:

  • A user-friendly React interface.
  • A NodeJS Express server that manages vector databases and LLM connections.
  • A dedicated server for document processing.

You can choose to run open-source models locally or connect to OpenAI, Azure, AWS, and other AI services. The tool supports multiple document formats including PDF, Word, and source code.

What's interesting about AnythingLLM is its privacy-first approach. Processing happens on your machine rather than in the cloud. The Docker version even supports multiple users with separate access permissions, making it ideal for businesses.

Key features:

  • Complete data processing on your machine.
  • Support for multiple AI models and providers.
  • PDF, Word, and source code analysis.
  • Built-in AI agents for workflow automation.
  • Developer-friendly API.

GPT4All

GPT4All lets you run over 1,000 open-source AI models directly on your computer without needing internet access. The software supports Apple Silicon Macs, NVIDIA GPUs, and AMD GPUs.

The LocalDocs feature is particularly useful—it allows AI to read and analyze your personal documents right on your device while building your own knowledge base.

The enterprise version costs $25 USD per month per machine and includes on-premise deployment, custom AI agents, and technical support.

Key features:

  • Fully offline operation.
  • Access to over 1,000 AI models.
  • LocalDocs for personal document analysis.
  • Runs on CPU or GPU.
  • Enterprise deployment tools available.

Ollama

Ollama ranks among the most popular tools for downloading and running LLMs locally. It bundles everything needed—model weights, configuration, and dependencies—into isolated environments, making management straightforward.

You can run models like Llama 3.2, Mistral, Code Llama, LLaVA, and Phi-3. Ollama offers both command-line and graphical interfaces on Windows, macOS, and Linux.

Many organizations use Ollama to build internal chatbots and integrate AI into their CRM or CMS platforms while keeping data completely in-house.

Key features:

  • Simple AI model management and downloading.
  • Both CLI and graphical interface.
  • Cross-platform support.
  • Each model runs in its own isolated environment.
  • Easy enterprise integration.

LM Studio

LM Studio is a desktop application for downloading and running AI models from Hugging Face directly on your computer. The software supports popular models including Llama 3.2, Mistral, Phi, Gemma, DeepSeek, and Qwen 2.5.

It includes a built-in API server compatible with OpenAI's API, which is handy—existing applications built for OpenAI can switch to local AI without major code changes.

You can drag and drop documents for the AI to read and chat with via RAG technology. The real concern is hardware—running larger models demands a capable CPU, plenty of RAM, and a solid GPU.

Key features:

  • Direct model downloads from Hugging Face.
  • OpenAI-compatible API.
  • Document chat using RAG.
  • No user data collection.
  • GPU customization and model configuration.

Jan

Jan is an open-source AI chatbot that functions like a local ChatGPT running entirely on your machine. You can load models like Llama 3, Gemma, and Mistral, or connect to services like OpenAI and Anthropic if preferred.

Jan stores all data in a local folder (Jan Data Folder) and integrates Cortex Server for OpenAI API compatibility. What makes Jan appealing is its extensibility—similar to VSCode or Obsidian, you can install extensions to customize it further.

Key features:

  • Fully offline AI operation.
  • OpenAI-compatible API.
  • Support for both local and cloud models.
  • Extensible plugin system.
  • NVIDIA, AMD, and Intel Arc GPU support.

Llamafile

Llamafile is Mozilla's clever project that transforms AI models into a single executable file (.exe). By combining llama.cpp with Cosmopolitan Libc, you only need to run one file—no additional installations or dependencies required.

Llamafile runs on Windows, macOS, Linux, BSD, and supports Intel, AMD, and ARM64 processors. It's also OpenAI API-compatible, making integration with existing applications painless.

Key features:

  • Run from a single executable file.
  • No dependency installation needed.
  • GPU acceleration for Apple, NVIDIA, and AMD.
  • Multi-OS support.
  • Auto-optimized for your CPU architecture.

NextChat

NextChat is an open-source web and desktop application that brings a ChatGPT-like experience to your personal computer. It supports connections to multiple AI providers including OpenAI, Google AI, and Claude.

You can create Masks—similar to custom GPTs—to build specialized chatbots with their own contexts and instructions.

NextChat offers:

  • Local data storage.
  • Markdown support.
  • Real-time responses.
  • Multiple language support.
  • One-click deployment on Vercel.

Key features:

  • Data stored completely locally.
  • Create custom AI chatbots with Masks.
  • Multiple AI API support.
  • Deploy with a single click.
  • Built-in prompt library and templates.

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Windows 10 Support Ends in October 2025: What You Need to Know (Updated in 2026)

Windows 10 Support Ends in October 2025: What You Need to Know

Windows 11 has officially arrived, and you're probably wondering: how much longer can I safely keep using Windows 10? The good news is you've got time. The better news is Microsoft has been transparent about the deadline. Here's what you need to know.

What's in This Article

  • Support ends October 14, 2025
  • Security updates stop after that date
  • Can you keep using it? Technically yes, but should you?
  • The cost to extend support beyond 2025

Windows 10 Support Officially Ends October 14, 2025

Microsoft's updated support documentation confirms it: mainstream support for Windows 10 terminates on October 14, 2025. After that date, you won't receive any further security patches or technical support from Microsoft.

Here's why this matters. Once support ends, your system becomes increasingly vulnerable. Any new security exploits discovered in Windows 10 after October 2025 likely won't get patched — though rare exceptions have happened in the past.

The real concern is that without ongoing security updates, your personal data and privacy are at risk. In today's threat landscape, where sophisticated phishing campaigns and remote exploits are constantly evolving, an unsupported operating system is genuinely dangerous.

Microsoft's official recommendation is simple: upgrade to the latest Windows version as soon as possible. The company even has policies in place to force automatic updates on older Windows installations. What's interesting here is that this isn't just Microsoft being pushy — it's about keeping your computer actually secure.

Windows 11

When Do Security Updates Stop?

Windows 10 Home, Pro, Education, Enterprise, and IoT Enterprise all lose security update support on October 14, 2025.

But here's an exception: Windows 10 LTSC (Long-Term Servicing Channel) — the specialized version for businesses needing extended support — keeps getting updates for several more years. Specifically, Windows 10 2019 LTSC and Windows 10 IoT 2019 LTSC won't reach end-of-life until January 9, 2029.

The broader takeaway: once security updates stop arriving, the attack surface grows exponentially. Any vulnerability discovered after the deadline essentially becomes permanent on unsupported machines. Upgrading to Windows 11 before October 2025 is genuinely the safest path forward, and the good news is the transition isn't particularly difficult.

  • Most hardware from the past several years supports Windows 11

Can You Keep Using Windows 10 After Support Ends?

Technically? Yes. Windows 10 won't suddenly stop working on October 15, 2025. Your computer will boot up, your applications will launch, everything will function normally.

But here's the reality: this is a terrible idea. Sophisticated cybercriminals actively exploit vulnerabilities in unsupported operating systems. Using an OS that no longer receives security patches is essentially leaving your front door unlocked while advertising that you're away.

We'll continue monitoring Windows support timelines as Microsoft releases updates.

Want to Keep Using Windows 10? Here's What It Costs

Microsoft has announced an Extended Security Update (ESU) program for commercial and educational organizations wanting to continue using Windows 10 beyond 2025. Pricing hasn't been fully detailed yet, but here's what we know.

For Business Customers: $61 per device in year one, $122 in year two, and $244 in year three. That's $427 total for three years of continued support. Organizations using Microsoft's cloud-based update management solutions like Intune or Windows Autopatch get a 25% discount, bringing year-one costs down to $45 per device.

For Educational Institutions: The pricing is remarkably affordable — just $1 per device in year one, $2 in year two, and $4 in year three. Total cost: $7 per device for three years of support. Microsoft also plans special pricing for nonprofits.

Enrollment in the Windows 10 ESU program opens in October 2024.

Here's the strategic reality: Microsoft's ESU pricing is deliberately expensive for businesses. A large enterprise with thousands of PCs would pay hundreds of thousands of dollars over three years just to stay on Windows 10. This cost structure effectively forces migration to Windows 11 — which is probably the point. What's less discussed is that many older PCs running Windows 10 don't meet Windows 11's hardware requirements, leaving organizations in a difficult position.

According to Statcounter, Windows 10 currently powers 69% of all desktop computers, while Windows 11 has only reached 26% adoption. Microsoft's high ESU pricing might accelerate that shift, though it will frustrate plenty of users and businesses stuck with incompatible hardware in the meantime.

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How to Restore a Windows System Using UEFI-Compatible .tib Ghost Files

How to Restore a Windows System Using UEFI-Compatible .tib Ghost Files

System ghosting is a technique that most tech-savvy users are already familiar with. The beauty of creating a Windows ghost image is simple: instead of spending hours reinstalling Windows from scratch, you can simply restore a complete backup file and have your entire system back in minutes.

Today there are countless tools and methods available for creating system ghosts—from one-click solutions to USB-based restoration techniques. In this guide, we're introducing another approach: using Acronis True Image to restore Windows from a .tib ghost file with full UEFI support. What's interesting here is that Acronis True Image, while primarily designed for backup and recovery, can also serve as a powerful ghosting tool. This walkthrough will show you exactly how to extract a .tib file onto your target drive.

Step-by-Step: Restoring Your System from a .tib File (UEFI)

Step 1:

Start by downloading Acronis True Image and installing it on your computer.

Step 2:

Launch the application and navigate to the main interface. Select the Home tab on the left side. On the right panel under Recover, click on My Disks.

Disk interface display

Step 3:

A file browser window will appear. Click the Browse button and locate the partition containing your .tib ghost file. Once you've found it, select it and click OK to confirm.

Finding the .tib ghost file

Next, click Next to proceed.

Click Next

Step 4:

In the Recover Method section, select Recover whole disk and partition, then click Next.

Restore partition options

Step 5:

Check the boxes next to all partitions you want to restore. The real concern here is the MBR and Track 0 setting—leave that unchecked to preserve your existing drive configuration and prevent any data loss.

Select partitions to restore

Step 6:

Under Settings of Partition 1-1, click New location to specify where you want the restored partition to go.

Choose destination partition

Step 7:

A new window opens showing available partitions. Select the Unallocated space you prepared beforehand, then click Accept.

Select unallocated space

Click Next to continue.

Click Next button

Step 8:

Now configure Settings of Partition G by clicking New location.

Configure partition G settings

In the dialog that appears, select the Unallocated partition and click Accept.

Choose partition for drive G

Click Next to move forward.

Partition for drive G

Step 9:

Move to Settings of Partition C and select New location as well.

Configure partition settings

Select Unallocated and click Accept.

Select unallocated space

Click Next to continue.

Confirm selected partitions

Step 10:

Once you've configured all partitions, click Proceed to start the restoration process.

Start restoring the ghost file

The restoration will complete in the background. When it finishes, you'll see a prompt asking whether to restart your computer or shut down. Choose your preferred option and let the process complete. That's it—your system is now restored from the ghost file.

Restart the computer

There you have it—you can now restore a complete Windows installation using .tib format ghost files through Acronis True Image. If you've had trouble with traditional .gho ghost files in the past, switching to the .tib format with this method might be exactly what you need.

Good luck with your restoration!

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China Accelerates Homegrown OS Development as Mac Sales Surge

China Accelerates Homegrown OS Development as Mac Sales Surge

Mac sales in China have experienced explosive growth over the past few years. A significant portion of this momentum comes from the rising popularity of Apple's custom-designed chip architecture, which has made their computers increasingly attractive to Chinese consumers.

In response, the Chinese government is now pushing domestic tech companies to develop their own operating system. The goal? Reduce dependence on American technology from Apple and Microsoft. This is a critical shift in Beijing's broader strategy to achieve technological self-sufficiency.

Like most countries worldwide, Chinese personal computers overwhelmingly run either Windows or macOS. Apple has been steadily gaining ground and now holds roughly 15% market share, while Windows dominates with 85%. Other platforms like Linux barely register as a meaningful presence.

The Chinese government has long expressed frustration over this reliance on American tech. Back in 2001, they tasked the National University of Defense Technology (a military institution) with building a homegrown OS. That project became Kylin. While Kylin has been deployed across military and government computer systems, it hasn't gained any real traction in the consumer market.

China Accelerates Homegrown OS Development as Mac Sales Surge

According to the South China Morning Post, Beijing is now ramping up efforts to make Kylin mainstream. The strategy includes launching an open-source version called openKylin. Here's what's interesting: earlier versions of Kylin were built on FreeBSD, but openKylin shifts to Linux as its foundation.

Here's what SCMP reported:

China has created an open platform to accelerate the development of domestic operating systems. This represents their latest push to break free from foreign systems like Windows and macOS. Last week, Kylinsoft—a subsidiary of China's State-Owned Electronics Group—partnered with ten Chinese organizations, including the National Industrial Information Security Research Center, to establish an open-source community. Branded as "openKylin," it enables developers to contribute code and improvements to the Kylin OS ecosystem.

This move arrives against the backdrop of escalating US-China tensions. Beijing is actively encouraging domestic companies to control critical technologies—everything from semiconductors to software. The real concern is that this technological decoupling could reshape global supply chains for years to come.

Meanwhile, American companies are working hard to reduce their reliance on Chinese manufacturing. Apple is constantly pushing to diversify its production footprint, but progress has been painfully slow. The speed of these shifts matters less than the direction they're heading.

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The Internet's Greatest Strengths and Weaknesses: A Balanced Look

The Internet's Greatest Strengths and Weaknesses: A Balanced Look

The internet has fundamentally transformed how we communicate, work, and live. But like any transformative technology, it cuts both ways. In this article, we'll explore the major advantages and disadvantages of the internet—with practical examples that show why understanding both sides matters.

The Top 10 Benefits of the Internet

1. Instant Global Connection

The internet erases geographical boundaries. People separated by thousands of miles can now video call, message, and collaborate in real-time. Friends and family stay connected across continents. Businesses collaborate faster across time zones. Educational institutions deliver live classes to students worldwide. What's interesting here is how quickly this shifted from luxury to necessity.

2. Unlimited Access to Information

Need to learn something? The answer is usually a search away. Academic papers, tutorials, how-to guides, and educational videos are available instantly. Students tap into digital libraries and research databases. Professionals stay current with industry trends. The democratization of knowledge is perhaps the internet's most underrated achievement.

3. Online Learning and Education

Education has moved beyond classroom walls. Platforms now offer courses ranging from beginner to advanced levels, making quality instruction accessible to anyone with a connection. Students attend virtual classes, watch recorded lectures, submit assignments digitally, and interact with instructors through learning platforms. Even working professionals pursue online certifications to advance their careers.

4. E-Commerce and Business Growth

Shopping online has revolutionized retail. Consumers buy clothing, electronics, groceries—nearly anything—from their homes. Businesses of all sizes, from startups to multinational corporations, use the internet to market products, reach global audiences, and process transactions. Digital marketing, influencer campaigns, and payment gateways all thrive because of the internet.

5. Remote Work and Flexibility

Internet connectivity makes working from home viable and productive. Companies use tools like Zoom, Slack, and cloud platforms to manage distributed teams across the globe. Employees enjoy better work-life balance and reduced commute stress. Employers save on office costs. Workers gain control over their schedules. Everyone wins—at least in theory.

6. The Internet of Things (IoT) Revolution

IoT connects everyday devices—refrigerators, lights, security cameras—to the internet for remote control and automation. Smart homes, smart cities, and intelligent healthcare systems all depend on this technology. Farmers use IoT sensors to monitor soil moisture and weather patterns, boosting crop yields. Healthcare providers track patient vitals in real-time from connected devices.

7. Digital Government and Civic Participation

Governments leverage the internet to improve public services. Tax filing, voter registration, emergency alerts—all now handled online. E-government streamlines processes, increases transparency, and improves user experience. Citizens access government portals for permits, bill payments, and complaints without visiting offices.

3. Entertainment and Creative Platforms

Streaming services, online gaming, podcasts, and social media offer endless entertainment options. The internet democratizes creativity. Independent artists, writers, and musicians bypass traditional media gatekeepers and reach audiences directly through platforms like YouTube and Spotify.

9. Telemedicine and Remote Healthcare

The internet brings healthcare closer to people. Online consultations, appointment scheduling, and health-tracking apps make medical services more accessible. Rural and remote communities receive expert advice without traveling. Digital platforms provide symptom information, treatment options, and preventative care guidance. Doctors share reports and monitor patient progress electronically.

10. Economic Growth and Innovation

The internet fuels national and global economies by creating new industries, jobs, and business models. Digital marketing, app development, fintech, and online education all generate wealth. Organizations use data-driven strategies to innovate and boost productivity. Freelancers and remote workers contribute to the growing gig economy.

The Top 10 Drawbacks of the Internet

1. Cybersecurity Threats and Privacy Breaches

As more personal and financial data move online, cyber attacks multiply. Hackers target individuals, companies, and governments with malware, phishing scams, and ransomware. Identity theft and data breaches expose sensitive information. While firewalls, antivirus software, and secure networks help, they're not foolproof.

2. Identity Theft and Online Fraud

The internet makes it easier for criminals to steal personal information and commit fraud. Scammers send fake emails, create fake websites, and trick users into revealing passwords or credit card numbers. Victims lose money, face legal issues, or suffer emotional trauma. Online shopping and banking require heightened caution.

3. Internet Addiction and Mental Health Issues

Many people—especially teenagers—spend excessive time online, leading to internet addiction and psychological problems. Constant social media exposure breeds anxiety, depression, and low self-esteem. People compare their lives to curated online personas. Gaming addiction is rising, causing users to neglect school, work, and relationships.

4. Misinformation and Fake News

The internet spreads information fast, but not all of it's accurate. Fake news, hoaxes, and conspiracy theories cause confusion and panic. Social media platforms struggle to moderate false content, especially during elections, health crises, or disasters. Misinformation shapes public opinion, damages reputations, and leads to poor decisions.

5. Screen Time and Physical Health

Excessive screen time damages vision, posture, sleep, and overall physical health. Kids spending hours online develop poor posture, digital eye strain, and obesity from inactivity. Adults working at computers suffer back pain and fatigue. Blue light from screens disrupts sleep quality.

6. The Digital Divide

Not everyone has equal internet access. Rural and underdeveloped areas suffer from weak or unavailable connectivity. This creates a digital gap between urban and rural populations, and between wealthy and poor communities. Students without access miss online learning. Job seekers can't apply for digital opportunities.

7. Cyberbullying and Online Harassment

Internet anonymity encourages negative behavior. Teens and adults face cyberbullying, trolling, and harassment on social platforms. Victims experience stress, fear, and lost confidence. In severe cases, this leads to self-harm or social withdrawal.

8. Environmental Footprint

The digital world consumes enormous amounts of energy. Data centers power servers and cooling systems 24/7. As demand grows, environmental impact increases. Manufacturing and disposing of electronics create e-waste. Poor disposal harms ecosystems. Users must recycle devices and embrace energy-efficient tools.

9. Privacy Concerns in IoT

IoT devices offer convenience at a privacy cost. Smart devices collect personal data—health information, location, habits. Without proper security, this data can be hacked or misused. Voice assistants and smart TVs may listen to conversations.

10. Eroded Social Skills and Isolation

Overusing the internet reduces face-to-face interaction. People prefer texting to real conversation, weakening social bonds. Kids raised online struggle with empathy, communication, and teamwork. Social media creates an illusion of connection without emotional depth. Loneliness and isolation are rising, especially among young people.

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