We’ve decided to open-source a multi-agent harness we use internally at YC.
We call it “QM” and it’s meant to be easy to customize, like Hermes or OpenClaw, but useful for a whole company. We use it across accounting, legal, events, and engineering (including building QM itself!).
The whole project is under an MIT license. It is cloud-first and has Slack and web UI natively.
بدلاً من قضاء ساعتين في مشاهدة نتفليكس الليلة.. شاهد هذه المح��ضرة من جامعة ستانفورد! 🚨
أوضح وأبسط شرح يمكن أن تراه عيناك لكيفية عمل ChatGPT و Claude كواليس خلف الشاشة!
سواء كنت لم تلمس الذكاء الاصطناعي في حياتك، أو تستخدمه يومياً منذ سنوات.. هذه المحاضرة ستغير طريقة فهمك له تماماً! 🤯
📌شاهد المحاضرة الآن! 👇
I've tried all (61 😵💫) AI Coding Agents & IDEs
[Emergent, CodeRabbit, Anything, Zed, Factory, Cursor, Windsurf, Wrapifai, Copilot, Lovable, Bolt, v0, Replit, MarsX, Canva, Devin, Github Spark, Figma Make, Cline & more]
The most complete list ever made (with demos & notes):
5️⃣ AI Agents
Before jumping into the AI agent hype, everyone should read Anthropic AI's guide on building effective agents.
"To build an agent, you don't need complex frameworks or libraries, but rather composable patterns"
🔗 https://t.co/rFWCfrBJUa
Western legacy media journalists care more about injured Zionists than they care about the many Palestinian children targeted and slaughtered every day by the Zionist regime.
Disgusting
#GazaHolocaust
See the CPU execution, Pipeline stages and Caches in action.
This emulator animates the high level CPU and Cache state-machine. You can track the state (fetch, decode, execute, memory access, write back and ) of a given instruction...
Try it here: https://t.co/us1SIKGjYl
Understanding Digital to Analog Converters (DACs)
DACs are essential electronic components that act as a bridge, transforming discrete digital signals, typically represented by binary codes, into continuous analogue signals.
This conversion process is fundamental to a wide range of applications, from audio and video systems to industrial control and scientific instrumentation.
How DACs Work
A DAC operates by converting a digital input code into an analogue output voltage or current. Several techniques are used to implement digital-to-analogue conversion, each with its own advantages and disadvantages.
Types of DACs
* Binary-Weighted DAC: This type uses a summing amplifier and a resistor network where each resistor's value is weighted according to the binary input.
* R-2R Ladder DAC: This type uses a resistor network with only two resistor values (R and 2R), making it easier to manufacture with high precision.
* Delta-Sigma DAC: This type is often used in high-resolution audio applications. It oversamples the input signal and uses noise shaping to achieve high accuracy.
* Current-Steering DAC: This type is commonly used in high-speed applications. It uses switches to steer current sources to the output.
Applications of DACs
DACs are used in a wide range of electronic systems, including:
* Audio Systems: Converting digital audio signals to analogue sound.
* Video Systems: Generating analogue video signals for displays.
* Telecommunications: Converting digital data for transmission over analogue channels.
* Industrial Control: Generating analogue control signals for motors and actuators.
* Scientific Instrumentation: Generating precise analogue signals for measurements and experiments.
* Medical Devices: Generating analogue signals for various medical applications.
Key Parameters to Consider
When selecting a DAC for a specific application, it's important to consider parameters such as:
* Resolution: The number of bits used to represent the digital signal, which determines the accuracy of the conversion.
* Linearity: How closely the analogue output follows the digital input.
* Signal-to-Noise Ratio (SNR): The ratio of the desired signal power to the noise power.
* Spurious-Free Dynamic Range (SFDR): The range between the largest signal and the largest unwanted signal.
* Power Consumption: The amount of power the DAC consumes.
* Conversion Speed: How quickly the DAC can convert a digital signal to an analogue signal.
Learn more about these vital components and how they work in this article: https://t.co/Av9qgGFQnB
#electronics #digital #analog #digitaltoanalogconverter #engineering #DAC
Fundamentals of Comp. Arch.: L4: Branch Prediction II and Prefetching
Join us in about 3 hours to discuss branch prediction and prefetching techniques used in modern microprocessors!
Course schedule: https://t.co/fcK3bdTjAD
https://t.co/52xjhwvoJh
@SAFARI_ETH_CMU@ETH_en
Join us live in ~20 minutes in our Fundamentals of Computer Architecture course.
We will overview Pipelined Microprocessor Design and build up to Out-of-order Execution.
Course schedule: https://t.co/fcK3bdTjAD
https://t.co/pck2TA04cH
@SAFARI_ETH_CMU@CSatETH@ETH_en
The course Introduction to Computer Systems from CMU is available as a self-paced course (2017). The video links are available on YouTube, along with the resources for each chapter. This course's recommended textbook - Computer Systems - A Programmers Perspective - is a gem and has been the guiding force.
PS: The recent one has the resources, but the videos are unavailable.