Mert
Google, Search Live’ı 200’den fazla ülkeye açtı
“Search Live hizmetini, AI Modu’nun kullanılabildiği tüm diller ve bölgelere genişletiyoruz.” diyen Google, sistemin artık 200’den fazla ülkede kullanılabilir hale getirildiği duyurdu. Türkiye ve Türkçe desteğinin de yer aldığı sistem, artık gücünü yeni yapay zeka modeli Gemini 3.1 Flash Live’dan alıyor ve kişilerin Gemini’a cihazlarının kameralarını kullanarak soru sormasına imkan tanıyor. Doğrudan görsel ve sesli iletişimi temel aldığından birçok durumda inanılmaz zaman kazandıran altyapı, Google’ın resmi iOS ve Android uygulamalarında kullanılabiliyor.
Google, Search Live’ı 200’den fazla ülkeye açtı yazısı ilk olarak Teknoloji haberleri – LOG üzerinde yayınlandı.
Inside a Cyber Attack: How Hackers Think, Operate, and Exploit Systems
Introduction
When a cyber attack makes headlines, the story is often simplified: a system was hacked, data was stolen, and damage was done.
But behind every successful attack lies a carefully planned sequence of actions, driven not just by tools—but by strategy, patience, and psychology.
Understanding how attackers think is one of the most important steps toward building effective defenses.
The Mindset of an Attacker
A cyber attacker does not randomly target systems. Instead, they think like a strategist:
- Where is the weakest point?
- What can be exploited with minimum effort?
- How can I remain undetected?
In many cases, the weakest link is not technology—but human behavior.
Stage 1: Reconnaissance (Information Gathering)
Every attack begins with observation.
Attackers collect as much information as possible about their target:
- Public websites
- Employee details (LinkedIn, social media)
- Email formats
- Technology stack being used
This phase is silent but critical. The more information gathered, the higher the chances of a successful attack.
Defensive Insight:
Organizations must limit unnecessary public exposure and train employees to be cautious about the information they share online.
Stage 2: Initial Access (Finding the Entry Point)
Once enough data is collected, attackers look for a way in. Common entry methods include:
- Phishing emails
- Weak or reused passwords
- Unpatched software vulnerabilities
Often, a single mistake—like clicking a malicious link—can open the door.
Defensive Insight:
Strong password policies, regular updates, and user awareness training can prevent most entry-level attacks.
Stage 3: Exploitation and Privilege Escalation
After gaining access, the attacker’s goal is to expand control.
They may:
- Move across systems (lateral movement)
- Gain higher-level permissions (admin access)
- Install hidden backdoors
At this stage, the attack becomes more dangerous, as the attacker is no longer an outsider—they are inside the system.
Defensive Insight:
Monitoring unusual activity and restricting user permissions are key to stopping attackers early.
Stage 4: Action on Objectives
Now the attacker executes their main goal. This could include:
- Data theft (sensitive information, credentials)
- System disruption (DDoS, ransomware)
- Surveillance or espionage
At this point, the impact becomes visible—and often costly.
Defensive Insight:
Data encryption, backups, and incident response planning can reduce damage significantly.
Stage 5: Covering Tracks
A skilled attacker does not simply leave—they erase evidence.
Logs may be deleted
Activities hidden
Backdoors left for future access
This makes detection and investigation much harder.
Defensive Insight:
Advanced logging systems and continuous monitoring are essential for identifying hidden threats.
Why This Matters Today
In a rapidly digitizing country like India, cyber threats are increasing alongside technological growth.
Organizations, governments, and individuals must understand that:
Cybersecurity is not just about tools—it is about understanding the attacker’s mindset.
Even popular media like Special Ops reflects this growing importance of combining intelligence with technology, though real-world scenarios are far more complex and less visible.
Conclusion
A cyber attack is not a single event—it is a process.
Each stage presents an opportunity to detect, prevent, or mitigate damage. The key is awareness, preparation, and continuous learning.
The future of cybersecurity will not be defined by those who react to attacks, but by those who can anticipate and understand them before they happen.
Why Your AI Agent Needs Memory
Most agent frameworks treat memory as an afterthought. They give your agent tools, prompts, and orchestration patterns — but when you restart the conversation, everything learned is gone.
This is the core problem: agents can think, but they cannot remember.
The Memory Gap
When you build with Claude, GPT, or Gemini, you get a model that reasons beautifully. It can analyze complex problems, write code, and synthesize information across documents. But hand it a task on Tuesday, come back Wednesday, and it is starting from zero.
This is not a bug — it is an architectural blind spot.
What Actually Works
The teams shipping agents in production converged on a pattern: persistent state plus retrieval.
Not just storing chat history. Building an actual knowledge layer that extracts insights, stores them in a queryable format, and retrieves relevant context when needed.
This is where MCP comes in. It is not just about connecting tools — it is about giving agents a way to persist what they learn.
The Pattern I Keep Seeing
Teams that solve this use three layers:
- Ephemeral context — the current conversation
- Working memory — relevant facts pulled from storage
- Long-term memory — a knowledge base that grows over time
The difference between agents that feel magical and agents that feel like fancy autocomplete is almost always memory architecture.
The teams winning with agents are not using smarter models. They are using smarter memory.
How I built a SaaS that sends AI-written Stripe reports every Monday — and what I learned
I’ve been building Autoreport for the past few months alongside my day job. The idea was simple: every Monday morning, get a PDF in your inbox with your Stripe numbers from the previous week — no dashboards, no manual work.
Here’s how I built it, the stack I chose, and the lessons I learned along the way.
The problem
I kept opening Stripe every Monday to check the previous week. Revenue, payments, new customers. It wasn’t hard — just friction. And because it required effort, I kept skipping it or doing it badly.
I wanted the numbers to come to me, not the other way around.
The stack
The entire backend runs on AWS, deployed with Terraform:
- Lambda (Python) — one function per stage of the pipeline: data extraction, AI narrative generation, PDF building, email delivery
- EventBridge — triggers the pipeline every Monday morning
- S3 — stores raw Stripe data and generated reports
- DynamoDB — tenant registry
- SES — email delivery
- Secrets Manager — stores each customer’s Stripe API key
- Bedrock (Claude Haiku) — generates the AI narrative from the weekly metrics
- API Gateway + Lambda — handles Paddle webhooks for subscription management
The landing page is a static site on Netlify. Payments go through Paddle as Merchant of Record.
How it works
Customer subscribes via Paddle checkout
Automated email via SES asks for their Stripe read-only API key
Customer replies with the key, I register them manually via a script (intentionally simple for beta)
Every Monday, EventBridge triggers the pipeline per tenant
Lambda pulls Stripe data, sends it to Bedrock, builds a PDF, delivers it via SES
What surprised me
Bedrock prompt engineering took longer than expected. The first version of the AI narrative was alarmist — “critical concern”, “immediate attention” — for perfectly normal week-over-week fluctuations. I had to be very explicit in the prompt about tone, context, and when strong language is actually warranted.
The Merchant of Record route (Paddle) was the right call for avoiding tax and VAT headaches as a solo founder in Spain. The approval process took a few days but was worth it.
What’s next
Right now it’s in beta. If you run a SaaS on Stripe and want your week summarized every Monday without lifting a finger, give it a try at autoreport.dev.
Happy to answer any questions about the architecture or the build process.
Originally published on my personal blog
🛠️ Crompressor: Reality Compilation – Teaching Data Centers to Recognize Their Own Data – 🔒 -P2P FUSE file system reducing data payload to 20%
Crompressor (Reality and Mapped Object Compression) is not just a compression utility. It operates under a divergent paradigm: Dictionary-Based Sovereignty and Abstraction . While traditional systems attempt to statistically crush a file starting from scratch with each execution, Crompressor acts as a “Reality Compiler” .
Think of it using the logic of building blocks (LEGO). If you build a castle and want to send it to me, traditional compression like ZIP disassembles the entire castle, packages it, and sends it in its entirety. Crompressor , on the other hand, understands that we already have billions of pieces scattered around the house (our Brain or Codebook ). It only sends the “Instruction Manifest” for the assembly and the “stickers” that differ (the Deltas ).
https://github.com/MrJc01/crompressor
Fixed Brains: Compiling Modulated Reality
The key to Crompressor’s success in B2B networks (Data Centers, Hospitals, Legacy Systems) is that it doesn’t rely on an unattainable universal dictionary. The system allows you to train Exclusive Domain Brains .
You train Crompressor to observe, for example, what 10,000 X-ray photos look like. It generates a tiny one. In the next millions of requests for other original, unpublished radiographs, Crompressor doesn’t work exhaustively; it simply notes the shortcuts and unmemorized fragments cerebro_raiox.cromdbin an invisible file (its JSON)..crom
If tomorrow someone tries to crush an MP3 player inside the Crompressor (data completely unrelated to X-rays), the model will trigger alerts pointing to a gross Delta Ratio stating: “My brain is blind to this. I need to generate a new audio model . “
Snowbin A social platform where conversations are mindmaps (Nuxt + Common Lisp)

Snowbin is a social platform that allows structured, visual discussions using mindmaps instead of traditional linear chat. Unlike other services that generate mindmaps from chat logs, Snowbin turns the mindmap itself into the conversation, keeping logic, structure, and visualization in sync.
Why a mindmap? Why not traditional chat?
When discussing ideas on platforms like Slack or Discord, conversations flow strictly in time order. Even with threads:
Topics get buried.
Logical structure disappears.
The overall shape of the discussion becomes invisible.
Information grows, but clarity does not. I realized I often spent more time trying to find key points than actually discussing ideas.
Snowbin addresses this by giving each topic its own node and connecting replies visually. Discussions remain structured, logical, and easy to follow. That question—“What if the discussion itself had structure?”—became the foundation of Snowbin.
How to use
Sign up and log in with your Google account.
Create a map using the “+” button above.
For private maps, generate an invitation link to invite others.
Try it here: snowbin.net
Tech Stack
Frontend
Nuxt/Vue is used for the frontend. Mindmap node positions are calculated using HTML/CSS, which is faster than doing it programmatically. You can explore the rendering logic here:
https://github.com/rrepo/easy-mi…
Backend
Inspired by Paul Graham’s The Hacker and the Painter, I chose Lisp for the backend. Lisp allowed me to write backend logic smoothly, and macros helped standardize repetitive processes like JSON handling and error management.
Using Lisp libraries is not always straightforward, but combining them to build a small framework from scratch was highly rewarding. The experience felt similar to developing in Go: clear layering and design philosophy, but with the power of macros to reduce boilerplate and maintain clarity.
Thank you for reading. If you are interasted you can try it here,
https://www.snowbin.net/
I would appreciate honest feedback.