Welcome to Royfactory

Introduction Nano Banana is Google DeepMind’s codename for Gemini 2.5 Flash Image, a state-of-the-art model for native image generation and editing. It brings natural-language targeted edits, identity consistency across scenes, multi-image fusion, world-knowledge-guided edits, and SynthID watermarking to keep provenance intact. It’s available in the Gemini app and via API (AI Studio / Vertex AI). Pricing is transparent at about $0.039 per image. :contentReference[oaicite:29]{index=29} What’s New Identity Consistency Keep a person, pet, or product looking like itself across variations—perfect for brand sets or episodic content. :contentReference[oaicite:30]{index=30} ...

AI Project Planning and Real-World Applications (Lecture 20) This is the final lecture of our 20-part series. We’ll conclude by discussing how to plan, design, and execute AI projects in real-world scenarios. You’ll learn about the AI project lifecycle, practical applications in various industries, and how to deploy models into production. Table of Contents {% toc %} 1) AI Project Lifecycle AI projects go beyond just training a model. They require a complete end-to-end strategy: ...

Multimodal AI Basics: Text + Image Understanding with CLIP and BLIP (Lecture 19) In this lecture, we’ll explore Multimodal AI, which combines different modalities like text and images to create more powerful and human-like AI systems. Just as humans can read a sentence while looking at a picture, multimodal AI models learn to connect language and vision. Table of Contents {% toc %} 1) What is Multimodal AI? Modality: A type of input data (e.g., text, image, audio) Multimodal AI: Processes and integrates multiple modalities at once Examples: Image Captioning → Generate a description of an image Text-to-Image Retrieval → Find images based on text queries Text-to-Image Generation → Create images from textual prompts (e.g., DALL·E, Stable Diffusion) 2) Why Is It Important? Human-like intelligence: Humans naturally combine vision, speech, and text Expanded applications: Search engines, recommendation systems, self-driving cars, healthcare Generative AI growth: Beyond text-only, multimodal AI powers new experiences like text-to-image and text-to-video 3) Key Multimodal Models CLIP (Contrastive Language-Image Pretraining) – OpenAI ...

Transformer Applications: Summarization and Translation (Lecture 18) In this lecture, we’ll explore two of the most practical applications of Transformers: text summarization and machine translation. Transformers excel at both tasks by leveraging their self-attention mechanism, which captures long-range dependencies and contextual meaning far better than RNN-based models. Table of Contents {% toc %} 1) Text Summarization Text summarization comes in two main forms: Extractive Summarization Selects key sentences directly from the original text. Example: Picking the 2–3 most important sentences from a news article. ...

GPT Basics: Generative Pretrained Transformer Explained (Lecture 17) In this lecture, we’ll explore GPT (Generative Pretrained Transformer), a Transformer-based model introduced by OpenAI in 2018. While BERT excels at understanding text (encoder-based), GPT specializes in generating text (decoder-based). GPT has since evolved into the foundation of ChatGPT and GPT-4. Table of Contents {% toc %} 1) Why GPT? GPT is designed to predict the next token in a sequence (autoregressive modeling). This makes it excellent at generating coherent, human-like text. ...

BERT Architecture and Pretraining: From MLM to NSP (Lecture 16) In this lecture, we’ll explore BERT (Bidirectional Encoder Representations from Transformers), a groundbreaking model introduced by Google in 2018. BERT significantly advanced NLP by introducing bidirectional context learning and a pretraining + fine-tuning framework, becoming the foundation for many state-of-the-art models. Table of Contents {% toc %} 1) Why BERT? Previous language models read text in only one direction (left-to-right or right-to-left). BERT, however, learns context from both directions simultaneously, making it far better at understanding word meaning in context. ...

Transformer Architecture Basics: From Attention to Modern AI (Lecture 15) In this lecture, we’ll introduce the Transformer architecture, which has become the foundation of modern AI models like GPT and BERT. Unlike RNNs or LSTMs that process sequences step by step, Transformers rely entirely on attention mechanisms and allow parallel processing, making them both faster and more effective. Table of Contents {% toc %} 1) Why Transformers? Traditional sequence models like RNNs and LSTMs process data sequentially, making training slow and prone to long-term dependency issues. ...

Attention Mechanism Basics: Understanding Query, Key, and Value (Lecture 14) In this lecture, we’ll explore the Attention Mechanism, one of the most impactful innovations in deep learning and Natural Language Processing (NLP). The key idea is simple: instead of treating all words equally, the model focuses on the most relevant words to improve context understanding. Table of Contents {% toc %} 1) Why Attention Matters Traditional sequence models like RNN, LSTM, and GRU struggle with long sentences, often forgetting earlier information. Example: ...

GRU Basics: Simplifying Recurrent Neural Networks (Lecture 13) In this lecture, we introduce GRU (Gated Recurrent Unit) networks, a simpler and faster variant of LSTM. You will learn the theory behind GRU gates, compare it with RNN and LSTM, and implement a sentiment analysis model on the IMDB dataset using TensorFlow/Keras. Table of Contents {% toc %} 1) Why GRU? Traditional RNNs suffer from the vanishing gradient problem, making it difficult to learn long-term dependencies. LSTMs solve this with a more complex structure but at the cost of slower training. ...

LSTM Basics: Understanding Long Short-Term Memory Networks (Lecture 12) In this lecture, we will explore LSTM (Long Short-Term Memory) networks. Unlike simple RNNs that struggle with long-term dependencies, LSTMs use special gates to remember or forget information, making them powerful for NLP, speech recognition, and time-series prediction. Table of Contents {% toc %} 1) Why Do We Need LSTM? Traditional RNNs suffer from the vanishing gradient problem, making it difficult to capture long-term context. For example: ...