How to prompt Images: Techniques for Creating Stunning AI-Generated Images


Creating images using AI has become easier and more enjoyable for me, and above all, very precise, since I discovered how to do it well. Now, the crazy visions I have in my head can finally be presented graphically. Amazing, huh?

In this article, we’ll explore effective techniques for crafting text-to-image prompts. By the end, you’ll know how to influence the artistic style, boost quality, emphasize specific elements, and fix deformities in your AI-generated images.

There are no limits here and only your vision counts! Read More

Mother of Prompts: Let AI Craft Your Perfect Prompt


Ever feel like your AI prompts could be sharper and more effective? Here’s a little secret: AI knows best how to talk to AI, which is why it can craft the best prompts. In this article, we’ll explore how AI can help you create the perfect prompt. By the end, you’ll see how letting AI refine your prompts can lead to better, more accurate responses. Read More

Decoding Generative AI Research Papers: Language Models are Few-Shot Learners – Unveiling the Power of GPT-3 in Natural Language Processing

Welcome to our new article series where we decode the world’s most important research papers on Generative AI using chatbots. Today, we’ll delve into the pivotal paper “Language Models are Few-Shot Learners,” which showcases the remarkable capabilities of GPT-3, an autoregressive language model developed by OpenAI. As highlighted in our introductory article (if you missed it, check it out here), our mission is to make groundbreaking AI research more accessible and comprehensible to everyone. The best part? Throughout this series, we’re leveraging AI to help explain itself. Read More

If This, Then That: Crafting Dynamic AI Responses with Conditional Prompting

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Ever wish your AI could handle complex decisions like a pro? In this article, we’ll explore Conditional Prompting, a technique that uses “if this, then that” statements to craft dynamic AI responses. By the end, you’ll see how this method can make your AI interactions smarter and more efficient. Read More

Mirrors of Thought: The Power of Analogical Prompting

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Let’s talk about Analogical Prompting. Imagine explaining a tricky concept to a friend using a familiar comparison. That’s what Analogical Prompting does for AI—using analogies to make complex ideas simpler.

Why use analogies? They give the AI a clear path to follow, making tough concepts easier to grasp. It’s like providing a mental shortcut. Read More

Decoding Generative AI Research Papers with Chatbots “EfficientNet: A Paradigm Shift in Scaling Convolutional Neural Networks”

Welcome to our new article series where we decode the world’s most important research papers on Generative AI using chatbots. This time we’ll take a look at another influential paper “EfficientNet: Rethinking Model Scaling for Convolutional Neural Networks,” which introduced an innovative approach to model scaling. As mentioned in the introductory article (if you missed it check it out here), the goal here is to make the most important research papers on AI less mysterious and more approachable to everyone. And the best part is that throughout this article series, we are using AI to explain itself.

Let’s start from the beginning – what are Convolutional Neural Networks?Read More

Thinking Paths: Exploring Chain and Tree of Thought Prompting


Have you ever wished your AI could think more like a human, breaking down complex problems step-by-step or brainstorming solutions like a team of experts? Well, you’re in luck. Today, I’ll show you how AI can achieve this through two powerful techniques: Chain of Thought and Tree of Thought prompting. Think of these techniques as sisters—similar in their purpose but different in their approach. In this article, we’ll dive into both methods, show you how to use them with examples, and highlight how they differ from each other. Read More

Prompting with Examples: Zero-, One-, Few-, and Multi-shot

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We will begin our journey by prompting with the basic techniques. Have you ever wondered how the number of examples you give can change the responses you get from AI? In this article, we’ll dive into how providing zero, one, a few, or many examples can shape the AI’s output. When it comes to prompting, more examples often lead to better results. By the end, you’ll see how varying the number of examples can refine your prompts and supercharge your AI interactions. Read More

Mastering AI Prompts: Clarity, Precision, Context, and Role-Play for Better AI Responses

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Ever wondered why some people get exactly what they need from AI, while others end up frustrated and misunderstood? The secret lies in how they prompt. In this article, we’ll dive into the essential techniques. You’ll discover why clarity, precision, context, and role-play are the key ingredients for effective AI communication. Get ready to transform your interactions and unlock the full potential of AI! Read More

Decoding Generative AI Research Papers: Large Scale Distributed Deep Networks- Revolutionizing Deep Learning with Distributed Computing

Welcome to our new article series where we decode the world’s most important research papers on Generative AI using chatbots. We’ll continue our journey with the influential paper “Large Scale Distributed Deep Networks,” which introduced the groundbreaking DistBelief framework. As mentioned in the introductory article (if you missed it check it out here), the goal here is to make the most important research papers on AI less mysterious and more approachable to everyone. And the best part is that throughout this article series, we are using AI to explain itself.


Before we dive into the study we must first comprehend the concept of Deep Learning, so let’s start with finding out what Deep Learning actually is.

Read more: Decoding Generative AI Research Papers: Large Scale Distributed Deep Networks- Revolutionizing Deep Learning with Distributed Computing


Explain the concept of Deep Learning to a layman using simple, plain English, examples and comparisons.

GPT response:

Deep learning is a type of artificial intelligence that aims to mimic the way the human brain works. It’s like teaching a computer to learn from experience, just as we do. Here’s a simple way to understand it:

Think of Your Brain as a Learner: Imagine your brain as a super-smart student that can learn to do different tasks, like recognizing your friend’s face in a crowd, understanding spoken language, or playing chess. The brain does this by processing information through a network of neurons, which are like tiny messengers sending signals to each other.

Neural Networks: In Deep Learning, we create artificial neural networks that function similarly to the brain’s network of neurons. These networks are made up of layers of interconnected nodes (artificial neurons). Each node processes a piece of information and passes it on to the next layer.

Learning from Data: Just like how we learn from experience, these neural networks learn from data. For example, to teach a neural network to recognize cats in pictures, we show it thousands of pictures of cats and tell it, “This is a cat.” Over time, the network gets better at recognizing cats on its own.

Layers of Learning: The “deep” in Deep Learning comes from having many layers of neurons. Each layer learns to recognize different features. In our cat example, the first layer might learn to detect edges, the next layer might recognize shapes like eyes or ears, and the final layer might identify the entire cat.

Improving with Practice: The network gets better through a process called training. During training, the network makes predictions and compares them to the correct answers. If it gets something wrong, it adjusts its connections slightly. Over many rounds of training, it improves its accuracy, much like how practice helps us get better at a skill.

Everyday Examples: Deep Learning is behind many technologies we use daily. It powers voice assistants like Siri and Alexa, helps Netflix recommend shows you’ll like, and enables self-driving cars to understand their surroundings.

In Summary Deep Learning is like creating a virtual brain that learns from data, improves with practice, and can be used for a wide range of tasks. It’s a powerful tool that’s making smart technologies even smarter, helping computers understand and interact with the world in ways that were once science fiction.

Now, that we have this concept covered we can move on.


Even though Deep Learning has become a cornerstone of artificial intelligence, driving advancements in fields ranging from speech recognition to visual object recognition the challenge of training large-scale deep neural networks efficiently remains a significant hurdle.


Here is where the DistBelief enters. A groundbreaking software framework developed by a team of researchers from Google, including notable scientists like Jeffrey Dean and Greg S. Corrado. This framework leverages distributed computing to train large deep neural networks, pushing the boundaries of what’s possible in AI.

DistBelief is designed to address the limitations of traditional Deep Learning training methods, which often struggle with scalability and efficiency. Traditional methods, including those utilizing GPUs, are constrained by memory limits and the sequential nature of training algorithms.

To understand the topic better let’s ask GPT what the terms GPU and CPU refer to.


Explain what is GPU and CPU, use simple language and a comparison that will enable layman to understand it

GPT response:

A Graphics Processing Unit (GPU) is a specialized processor originally designed to accelerate graphics rendering. Imagine you are sorting a huge pile of books. A CPU is like a single librarian who sorts one book at a time. A GPU, on the other hand, is like having a team of librarians, each sorting books simultaneously. This parallel effort makes the job much faster. However, if the pile of books is too large to fit in their sorting room, they will struggle, which is similar to a GPU running out of memory.

How  DistBelief works is that it overcomes these obstacles by distributing the training process across thousands of machines, each handling a portion of the computational load.


The study “Large Scale Distributed Deep Networks” focuses on the innovative DistBelief framework, designed by a team of researchers at Google to tackle the immense challenge of training deep neural networks at scale. This research emphasizes the importance of efficiently training models with billions of parameters, a task that traditional methods often find prohibitive due to their resource constraints. DistBelief leverages distributed computing, utilizing thousands of machines to handle the computational load.

The researchers created two important tools to make this system work better: Downpour SGD and Sandblaster L-BFGS. 

Let’s see what hides behind these sophisticated terms:


I want you to explain these terms layman to layman, using simple plain English:

GPT response:
Downpour SGD is a method that speeds up the learning process by letting multiple copies of the model learn at the same time, each working on different parts independently. Think of it like having several students working on different parts of a project separately and then sharing what they’ve learned.

Sandblaster L-BFGS is another method that helps the system handle updates and changes more efficiently across a large network of computers. It’s like having a well-organized team where everyone knows exactly what to do and when to do it, making the whole process run smoothly

The study was performed by partitioning neural networks across multiple machines to enable parallel processing, significantly reducing training times. The researchers tested their framework on tasks like image recognition and speech recognition, achieving state-of-the-art results. This breakthrough not only sets a new standard for scalability and performance in Deep Learning but also opens up new possibilities for real-world applications across various industries. The enthusiasm surrounding these advancements is well-founded, as they represent a significant leap forward in the capability and efficiency of AI training methodologies.


  • Model Parallelism: Enhancing Efficiency Through Division: Imagine you have a massive jigsaw puzzle. Instead of one person working on it alone, you divide the puzzle into sections and distribute these sections among several people. Similarly, model parallelism breaks down a neural network into segments, distributing these segments across multiple machines. Each machine handles a part of the network, enabling parallel processing and significantly reducing the training time required.

  • Data Parallelism: Synchronizing Learning Across Replicas Think of data parallelism as having multiple chefs in a kitchen, each cooking the same dish but using different ingredients. Multiple replicas of the same model are trained on different subsets of data. These replicas periodically synchronize their parameters, ensuring that the entire dataset is learned consistently across all models.

  • Downpour SGD: Speed and Robustness in Training: Downpour Stochastic Gradient Descent (SGD) is like having multiple teams working on the same project independently but periodically sharing their progress. This asynchronous variant of SGD supports numerous model replicas, enhancing training speed and robustness. By allowing each replica to update independently, it reduces the impact of machine failures and inconsistencies, ensuring a more resilient training process.

  • Sandblaster L-BFGS: Coordinated Optimization for Large Systems: Imagine coordinating a large group of musicians, each playing their part in perfect harmony. Sandblaster L-BFGS is a distributed implementation of the L-BFGS optimization algorithm that coordinates multiple model replicas to perform batch optimization. This method efficiently manages parameter updates across a large-scale system, ensuring that all parts of the network work together seamlessly.


The development of DistBelief represents a significant milestone in the field of Deep Learning. By enabling the training of neural networks with billions of parameters, it sets a new standard for scalability and performance. This framework’s efficiency and capability are vividly demonstrated through its application to critical AI tasks like image recognition and speech recognition.

While going through the paper I found some cool capabilities which I want to share here with you. 

DistBelief was used to train a neural network with an astounding 1.7 billion parameters. This effort resulted in a significant improvement in classification accuracy, setting a new benchmark for the ImageNet object classification task and showcasing the power of distributed Deep Learning.

For the task of acoustic processing, DistBelief trained a deep network with 42 million parameters on a dataset of 1.1 billion examples. This innovative approach reduced the training time to less than one-tenth of that required by traditional GPU-based methods, demonstrating not only the speed but also the efficiency of the DistBelief framework.

That’s all very interesting, but you might be wondering what are the Real-World applications of this tool?


DistBelief’s advancements in training large-scale neural networks have far-reaching implications across various industries. First, we begin with the ones I find most interesting

  • Healthcare: In medical imaging, large neural networks can be trained to detect diseases with higher accuracy, improving diagnostic processes and patient outcomes. This can have an enormous impact on radiologists and their day-to-day practice making their work so much more efficient.

  • Finance: Financial institutions can use Deep Learning models to analyze vast amounts of data for fraud detection and risk management, enhancing security and operational efficiency.

  • Automotive: In autonomous driving, robust neural networks trained on diverse datasets are crucial for developing safe and reliable self-driving cars.

Now, let’s take a look at what GPT can tell us about DistBelief’s Real-World applications?


Based on the attached file provide me with a list of real-world application of the distbelief. Include multiple areas of interest such as healthcare, pharmaceutical business, e-learning, business aplication and corporate business

GPT response:

Based on the provided document, here is a list of real-world applications of the DistBelief framework across various fields:

Real-World Applications of DistBelief


1. Medical Imaging: Training large neural networks to detect diseases such as cancer from medical images like X-rays, MRIs, and CT scans with higher accuracy.

2. **Genomic Data Analysis**: Analyzing large sets of genomic data to identify genetic markers associated with diseases, enabling personalized medicine approaches.

Pharmaceutical Business:

1. Drug Discovery: Using Deep Learning models to predict the interaction between drugs and biological targets, accelerating the drug discovery process.

2. Clinical Trial Optimization: Analyzing patient data to identify suitable candidates for clinical trials and predict outcomes, improving trial efficiency and success rates.


1. Personalized Learning: Developing adaptive learning systems that tailor educational content to individual student needs, enhancing learning experiences.

2. Automated Grading: Implementing AI-driven grading systems to provide instant feedback on assignments and exams, reducing the workload on educators.

Business Applications:

1. Customer Support Automation: Creating sophisticated chatbots that can handle a wide range of customer inquiries, improving customer service efficiency and satisfaction.

2. Market Analysis: Analyzing vast amounts of market data to provide insights and predictions, helping businesses make informed decisions.

Corporate Business:

1. Fraud Detection: Implementing advanced neural networks to detect fraudulent transactions and activities in real-time, protecting companies from financial losses.

2. Employee Training: Utilizing AI to develop personalized training programs for employees, enhancing skill development and productivity.

These applications demonstrate the versatility and impact of DistBelief in various domains, highlighting its potential to transform industries through advanced Deep Learning technique


DistBelief represents a paradigm shift in Deep Learning, enabling the efficient training of extraordinarily large neural networks. The collaborative efforts of the Google research team have resulted in a framework that not only pushes the boundaries of AI capabilities but also opens new avenues for innovation across various sectors. It is worth noting that the success and innovations achieved with DistBelief laid the groundwork for the development of TensorFlow, Google’s more advanced and widely-used machine learning framework. Not only that but also enhanced functioning of  Google Voice Search, Google Translator, and Google Photos. As AI continues to evolve, frameworks like DistBelief will be instrumental in unlocking the full potential of Deep Learning, driving forward the next wave of technological advancements. [/read]

Kacper Malinos