Deep Learning A Comprehensive Overview.pdf
2.2 MB
Need a big picture view of Deep Learning? ๐
#DeepLearning #ArtificialIntelligence #MachineLearning #Industry40 #ResearchPapers
This comprehensive review by Iqbal H. Sarker is the perfect starting point. It moves from the history of artificial neural networks to modern breakthroughs, helping you understand how DL models learn from data to drive automation. Whether you are a researcher or a developer, this paper serves as an excellent guide to the state-of-the-art in DL modeling.
#DeepLearning #ArtificialIntelligence #MachineLearning #Industry40 #ResearchPapers
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What could happen? LOL.
#ClaudeAI #Higgsfield #AIProduction
From idea to final render, all in one place. Claude + Higgsfield MCP is the ultimate creative powerhouse for agents and creators. ๐โก๏ธ
#ClaudeAI #Higgsfield #AIProduction
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Breaking_the_Sorting_Barrier_for_Directed_Single_Source_Shortest.pdf
371.2 KB
Need the latest advancements in graph theory? ๐๐
This research paper, titled "Breaking the Sorting Barrier for Directed Single-Source Shortest Paths," presents a new, faster deterministic algorithm for finding the shortest paths from a single source in directed graphs with non-negative real edge weights. ๐ By introducing a recursive partitioning technique to manage the frontier of vertices, the authors have developed a method that surpasses the traditional time complexity limit set by Dijkstraโs algorithm for sparse graphs. ๐ This work represents a significant milestone, showing that Dijkstra's algorithm is not optimal for this fundamental problem and offering a faster alternative for researchers and developers working on graph optimization. ๐ ๐
@TheInfinityAI #GraphTheory #Algorithms #ComputerScience #ResearchPapers #SSSP
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Forwarded from The Hacker News
๐ ALERT - A Chrome ad blocker with 10 MILLION+ installs has a dormant risk.
Experts say the extension can be remotely configured to run arbitrary JavaScript across websites, without an extension update or store review.
Read the full analysis: https://thehackernews.com/2026/06/chrome-ad-blocker-with-10m-installs.html
Experts say the extension can be remotely configured to run arbitrary JavaScript across websites, without an extension update or store review.
Read the full analysis: https://thehackernews.com/2026/06/chrome-ad-blocker-with-10m-installs.html
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๐ฎ๐ณ | Indian Government orders Meta to halt WhatsApp username rollout, seeks response within 3 days ๐ซ๐ฑ
The Indian government has directed Meta to immediately suspend the rollout of WhatsAppโs upcoming Username feature in India ๐ฎ๐ณ๐.
According to reports by Reuters ๐ฐ, Indiaโs Ministry of Electronics and Information Technology has sent an official notice to Meta regarding the matter. The new feature would allow users to communicate without revealing their phone numbers ๐๐. However, Indian authorities have raised concerns that this could significantly increase online financial fraud ๐ธ, impersonation, and cybercrime ๐ต๏ธโโ๏ธ.
Officials warn that criminals may exploit the feature by creating fake accounts under the names of government institutions or public figures to deceive the public ๐ญ.
As a result, Meta has been asked to provide a detailed explanation of its security measures within 3 days ๐๏ธ, and to avoid launching the feature in India until discussions with the government are completed ๐ค๐๏ธ.
Responding to the issue, a WhatsApp spokesperson stated that the feature has not yet been activated ๐, and that the company plans to reserve usernames related to government entities, public figures, and verified accounts in advance to prevent misuse โ .
India remains WhatsAppโs largest market ๐, with over 500 million users ๐ฅ. Previously, apps like Telegram and Signal have also faced scrutiny from Indian authorities over features that allow users to hide phone numbers ๐ถ๏ธ๐ฑ.
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Mastering Cloud-Native Integration: A Comprehensive Overview of Ballerina Language ๐โ๏ธ
In the modern software engineering landscape, building cloud-native systems often feels like assembling a puzzle with pieces that do not quite fit. We live in a world dominated by microservices, distributed architectures, and countless API endpoints. Developers traditionally use languages such as Java, Python, and Go to build distributed systems. However, these languages often treat networking as an additional feature that depends on external libraries, configuration files, and frameworks. To address this challenge, WSO2 develops Ballerina, an open-source, cloud-native programming language specifically designed for network applications, microservices, and system integration. This guide explains what Ballerina is, explores its core concepts, and demonstrates how it simplifies cloud-native application development.
๐ค Why Ballerina?
Unlike legacy programming languages that treat network interactions as basic I/O (Input/Output) operations, Ballerina treats the network as a first-class citizen. In Ballerina, concepts like clients, services, protocols (HTTP, gRPC, GraphQL), and data formats (JSON, XML) are fundamentally built into the language grammar itself.
Key Pillars;
๐งฑ Core Building Blocks
Ballerina provides several built-in concepts for cloud-native development.
๐ Simple REST Service Example
The following example shows how easily Ballerina exposes a REST endpoint.
This example demonstrates several important features:
โ๏ธ Cloud-Native Deployment
One of Ballerina's strongest advantages is its built-in cloud support. Instead of manually creating Dockerfiles and Kubernetes manifests, developers simply compile the project. During compilation, Ballerina analyzes the application and generates deployment artefacts, including Docker images and Kubernetes configuration files. This process reduces manual work and simplifies cloud deployment.
๐ Data Integration
Ballerina includes native support for JSON, allowing developers to create and return structured data with minimal code.
Because JSON is a built-in language type, developers do not need additional libraries for serialization or deserialization.
๐ฏ Conclusion
Ballerina is a programming language designed specifically for cloud-native software development. It combines networking, data integration, and cloud deployment into a single language, reducing the need for external frameworks and boilerplate code. Its built-in support for services, APIs, JSON, Docker, and Kubernetes makes it a practical choice for building modern microservices and distributed applications. For developers who regularly create APIs or integration services, Ballerina offers a clean and efficient development experience.
@TheInfinityAI
In the modern software engineering landscape, building cloud-native systems often feels like assembling a puzzle with pieces that do not quite fit. We live in a world dominated by microservices, distributed architectures, and countless API endpoints. Developers traditionally use languages such as Java, Python, and Go to build distributed systems. However, these languages often treat networking as an additional feature that depends on external libraries, configuration files, and frameworks. To address this challenge, WSO2 develops Ballerina, an open-source, cloud-native programming language specifically designed for network applications, microservices, and system integration. This guide explains what Ballerina is, explores its core concepts, and demonstrates how it simplifies cloud-native application development.
๐ค Why Ballerina?
Unlike legacy programming languages that treat network interactions as basic I/O (Input/Output) operations, Ballerina treats the network as a first-class citizen. In Ballerina, concepts like clients, services, protocols (HTTP, gRPC, GraphQL), and data formats (JSON, XML) are fundamentally built into the language grammar itself.
Key Pillars;
Network-Aware Syntax - Developers create services and clients without relying on large external frameworks.
Visual Representation - Every Ballerina program can be visualized as a sequence diagram, helping architects and developers understand application flow.
Cloud-Native Support - The compiler generates deployment artifacts for Docker and Kubernetes.
Structural Typing - Ballerina works naturally with JSON and XML, making data integration simple.
๐งฑ Core Building Blocks
Ballerina provides several built-in concepts for cloud-native development.
Listeners - receive network requests.
Services - expose application functionality.
Resource Methods - map directly to HTTP methods such as GET, POST, PUT, and DELETE.
Remote Methods - support communication through protocols such as gRPC and WebSocket.
๐ Simple REST Service Example
The following example shows how easily Ballerina exposes a REST endpoint.
import ballerina/http;
service /music on new http:Listener(8080) {
resource function get tracks() returns json {
return [
{id: "1", title: "Shape of You"},
{id: "2", title: "Blinding Lights"}
];
}
}
This example demonstrates several important features:
The HTTP listener is created with a single statement.
The service automatically exposes the /music/tracks endpoint.
Ballerina converts the returned records into JSON without additional configuration.
โ๏ธ Cloud-Native Deployment
One of Ballerina's strongest advantages is its built-in cloud support. Instead of manually creating Dockerfiles and Kubernetes manifests, developers simply compile the project. During compilation, Ballerina analyzes the application and generates deployment artefacts, including Docker images and Kubernetes configuration files. This process reduces manual work and simplifies cloud deployment.
๐ Data Integration
Ballerina includes native support for JSON, allowing developers to create and return structured data with minimal code.
resource function get summary() returns json {
return {
totalTracks: 2,
systemStatus: "Healthy"
};
}Because JSON is a built-in language type, developers do not need additional libraries for serialization or deserialization.
๐ฏ Conclusion
Ballerina is a programming language designed specifically for cloud-native software development. It combines networking, data integration, and cloud deployment into a single language, reducing the need for external frameworks and boilerplate code. Its built-in support for services, APIs, JSON, Docker, and Kubernetes makes it a practical choice for building modern microservices and distributed applications. For developers who regularly create APIs or integration services, Ballerina offers a clean and efficient development experience.
@TheInfinityAI
ballerina.io
The Ballerina programming language
A programming language for the cloud that makes it easier to use, combine, and create network services.
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Google Chrome is completely moving to a new extension system called Manifest V3 (MV3) and dropping the old Manifest V2 (MV2) rules. Google claims this change will improve security and performance. ๐
However, this is a huge blow to traditional Ad Blockers: ๐
What Can You Do Now? ๐ค
๐คฃ Meanwhile, Brave Browser...
"Manifest what? ๐ I don't rely on web extensions to block ads. My ad blocker (Brave Shields) is built right into my core engine and written in Rust. You guys do whatever you want, I'll keep shredding YouTube ads and trackers natively!" ๐ช๐ฅ
@TheInfinityAI
However, this is a huge blow to traditional Ad Blockers: ๐
The Main Issue: Unlike MV2, MV3 does not allow ad blockers to inspect web requests in real-time and do dynamic filtering. ๐โ
The Impact: Powerful tools like the original uBlock Origin will lose their full strength. Users might notice a drop in performance when blocking YouTube ads, anti-adblock popups, and custom filter rules. ๐
Current Status: With the Chrome 150/151 updates, Google has blocked all remaining workarounds that allowed users to run old MV2 extensions. ๐ซ
What Can You Do Now? ๐ค
Switch to MV3 Alternatives: Shift to Manifest V3-compatible extensions like uBlock Origin Lite, AdGuard (MV3), or AdBlock Plus (MV3). ๐
Change Browsers: If you want total freedom and advanced blocking, switch to Firefox (which is keeping full support for powerful MV2-style filtering) or jump to Brave to get native, extension-free ad blocking! ๐ฆ๐ก
๐คฃ Meanwhile, Brave Browser...
"Manifest what? ๐ I don't rely on web extensions to block ads. My ad blocker (Brave Shields) is built right into my core engine and written in Rust. You guys do whatever you want, I'll keep shredding YouTube ads and trackers natively!" ๐ช๐ฅ
@TheInfinityAI
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Forwarded from Data Science & Machine Learning
GigaChat 3.5 Ultra Publicly Released โ The New Generation of the Flagship Model
Whatโs inside:
๐ A proprietary hybrid MLA + Gated DeltaNet architecture with a dedicated stabilization framework, without which this hybrid setup would not train reliably at this scale;
๐ Gated Attention: the model can locally down-weight overly strong signals from the attention layer;
๐ GatedNorm: normalization with an explicit gate that controls signal magnitude across features;
๐ Approximately 4x lower KV cache per token: with the same memory budget, the model can support 2.14x longer context and deliver a 20% throughput increase under load;
๐ Two MTP heads, enabling up to 2.2x faster generation;
๐ FP8 across all training stages with no quality degradation compared with bf16, enabled by custom Triton and CUDA kernels;
๐ A new online RL stage after SFT and DPO.
Results:
๐ GigaChat-3.5-Ultra-Base outperforms DeepSeek V3.2 Exp Base and DeepSeek V4 Flash Base on average across a set of general, math, and code benchmarks:
๐ GigaChat-3.5-Ultra-Instruct is comparable to DeepSeek V3.2 in terms of average score, despite having half the size;
๐ According to the MiniMax-M2.7 LLM judge, the average win rate against GigaChat 3.1 Ultra is 75.9%, and against GPT-5 is 68.7%.
โก๏ธ HuggingFace
The GigaChat team has released GigaChat 3.5 Ultra as open sourceโa new 432B model under the MIT license. This is the first open-source hybrid of GatedDeltaNet and MLA scaled to hundreds of billions of parameters, featuring a proprietary training recipe we refined through more than 1,500 experiments. The model has grown in terms of code, mathematics, agent scenarios, and application domainsโyet itโs 40% smaller than GigaChat 3.1 Ultra.
Whatโs inside:
Results:
The entire stack โ data (our own LLM-filtered Common Crawl, 600+ programming languages in the code), architecture, training methodology, and infrastructure โ was built end-to-end by GigaChat team.
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Process ๐ฅ - Think of a process as an independent program or application running on your computer, such as your web browser or a music player. Each process has its own memory space and resources, meaning they are isolated from one another. ๐
Thread ๐งต - A thread is a smaller unit of execution within a process. A single process can have multiple threads working together to perform tasks simultaneously, such as a bot managing multiple streams or handling network requests without freezing the entire application. โก๏ธ
@TheInfinityAI ๐ค
Article 32: Neural Network Foundations โ How Machines Learn ๐ง
A Neural Network is a mathematical model inspired by the neurons in a human brain. While a simple model like Linear Regression finds a straight line, a Neural Network can find any complex shape in data.
1. The Structure of a Neural Network
A network consists of layers of Neurons,
2. Inside the Neuron (The Math)
Every neuron does a simple calculation. It takes inputs, multiplies them by Weights, adds a Bias and passes the result through an Activation Function.
3. The Learning Process (Forward Propagation)
4. How the Machine Corrects Itself (Backpropagation)
This is the most advanced part of DL. Backpropagation is the process of moving backward from the error to update the weights.
Summary ๐
Neural Networks use layers of neurons to find complex patterns. Each neuron uses Weights, Bias and Activation Functions to process data. Forward Propagation makes a prediction, and Backpropagation uses math to correct errors by updating weights. Optimizers like Adam make this process fast and efficient. โจ ๐๐.
In the next article (Article 33), we discuss Computer Vision, where we learn how CNNs (Convolutional Neural Networks) see images! ๐ทโญ๏ธ ๐๐
โ๏ธ @TheInfinityAI
A Neural Network is a mathematical model inspired by the neurons in a human brain. While a simple model like Linear Regression finds a straight line, a Neural Network can find any complex shape in data.
1. The Structure of a Neural Network
A network consists of layers of Neurons,
Input Layer - receives the raw data (like pixels of an image or numbers in a table).
Hidden Layers - are between the input and output. They perform the math and find hidden patterns. More hidden layers mean the network is Deep.
Output Layer - gives the final prediction
2. Inside the Neuron (The Math)
Every neuron does a simple calculation. It takes inputs, multiplies them by Weights, adds a Bias and passes the result through an Activation Function.
Weights - represent the strength of the connection. If a weight is high, that input is very important.
Bias - extra number that helps the neuron decide when to activate.
Activation Function -mathematical gate that decides the final output of the neuron. (ReLU, Sigmoid and Softmax functions)
3. The Learning Process (Forward Propagation)
- Data enters the Input Layer.
- The machine multiplies the data by the current Weights.
- The data moves through the Hidden Layers.
- The machine makes a Prediction in the Output Layer.
- The machine calculates the Loss
4. How the Machine Corrects Itself (Backpropagation)
This is the most advanced part of DL. Backpropagation is the process of moving backward from the error to update the weights.
The machine uses the Chain Rule from calculus to calculate the Gradient
It finds exactly how much each weight contributed to the total error.
It then changes the weights slightly to make the error smaller for the next time.
Summary ๐
Neural Networks use layers of neurons to find complex patterns. Each neuron uses Weights, Bias and Activation Functions to process data. Forward Propagation makes a prediction, and Backpropagation uses math to correct errors by updating weights. Optimizers like Adam make this process fast and efficient. โจ ๐๐.
In the next article (Article 33), we discuss Computer Vision, where we learn how CNNs (Convolutional Neural Networks) see images! ๐ทโญ๏ธ ๐๐
โ๏ธ @TheInfinityAI
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Article 33: Computer Vision โ Convolutional Neural Networks (CNNs) ๐ท๐ง
Standard Neural Networks are bad at processing images because an image has thousands or millions of pixels. If you flatten an image into a 1D vector, you lose all spatial information (where pixels are relative to each other). CNNs solve this problem by keeping the 2D grid structure intact. โ
1. The Core Idea: Spatial Features ๐ฏ
When a human looks at a picture of a face, they don't look at individual pixels. They recognize edges, shapes, eyes, noses, and then the whole face. A CNN does the exact same thing in a hierarchy
2. The Main Building Blocks of a CNN ๐
A typical CNN architecture consists of three main operations repeated in layers
3. The Complete Architecture ๐ฏ
After several Convolution, ReLU and Pooling layers, the 2D feature maps are flattened into a 1D vector. This vector is passed to a Fully Connected Layer (a standard Neural Network layer) to make the final classification prediction.
4. Advanced Concept: Transfer Learning ๐โป๏ธ
Training a deep CNN from scratch requires millions of images and massive computing power. In practice, engineers use Transfer Learning.
Summary ๐โจ
CNNs are designed for visual data. They use Convolutional Layers with filters to extract features, ReLU for non-linearity, and Pooling Layers to downsample data. Instead of training from scratch, developers use Transfer Learning to build high-accuracy computer vision applications fast. โจ ๐๐.
In the next article (Article 34), we discuss Sequence Modeling (RNN, LSTM, & GRU), where we learn how machines process time-series data and text! ๐ฌ๐ค๐๐
โ๏ธ @TheInfinityAI
Standard Neural Networks are bad at processing images because an image has thousands or millions of pixels. If you flatten an image into a 1D vector, you lose all spatial information (where pixels are relative to each other). CNNs solve this problem by keeping the 2D grid structure intact. โ
1. The Core Idea: Spatial Features ๐ฏ
When a human looks at a picture of a face, they don't look at individual pixels. They recognize edges, shapes, eyes, noses, and then the whole face. A CNN does the exact same thing in a hierarchy
Early Layers - Detect simple lines, edges and corners.
Middle Layers - Combine edges to detect shapes like circles, squares or textures.
Deep Layers - Combine shapes to detect complex objects like faces, cars or animals.
2. The Main Building Blocks of a CNN ๐
A typical CNN architecture consists of three main operations repeated in layers
I. Convolution Layer (The Feature Extractor)
II. Activation Layer (ReLU)
III. Pooling Layer (Downsampling)
3. The Complete Architecture ๐ฏ
After several Convolution, ReLU and Pooling layers, the 2D feature maps are flattened into a 1D vector. This vector is passed to a Fully Connected Layer (a standard Neural Network layer) to make the final classification prediction.
๐ผ Input Image
โ
๐งฎ Convolution + โก๏ธ ReLU
โ
๐ Max Pooling
โ
๐งฎ Convolution + โก๏ธ ReLU
โ
๐ Max Pooling
โ
๐ Flatten
โ
๐ง Fully Connected Layer
โ
๐ฏ Softmax Output
4. Advanced Concept: Transfer Learning ๐โป๏ธ
Training a deep CNN from scratch requires millions of images and massive computing power. In practice, engineers use Transfer Learning.
We take a model (like ResNet, VGG, or EfficientNet) that was already trained on a huge dataset like ImageNet (over 1 million images).
We freeze the feature extraction layers and only re-train the final output layers for our specific task.
This saves hours of training time and achieves high accuracy even with a small dataset.
Summary ๐โจ
CNNs are designed for visual data. They use Convolutional Layers with filters to extract features, ReLU for non-linearity, and Pooling Layers to downsample data. Instead of training from scratch, developers use Transfer Learning to build high-accuracy computer vision applications fast. โจ ๐๐.
In the next article (Article 34), we discuss Sequence Modeling (RNN, LSTM, & GRU), where we learn how machines process time-series data and text! ๐ฌ๐ค๐๐
โ๏ธ @TheInfinityAI
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NN & DL Course.pdf
14.3 MB
Neural Networks & Deep Learning ๐ง ๐
Want to master Deep Learning from the ground up? This PDF contains comprehensive notes covering the complete DeepLearning. Save this PDF and keep it as your Deep Learning handbook!
#AI #MachineLearning #DeepLearning #NeuralNetworks #CNN #RNN #LSTM #Python #DataScience #ArtificialIntelligence #AndrewNg #DeepLearningAI #ComputerVision #NLP #LearnAI @TheInfinityAI
Want to master Deep Learning from the ground up? This PDF contains comprehensive notes covering the complete DeepLearning. Save this PDF and keep it as your Deep Learning handbook!
#AI #MachineLearning #DeepLearning #NeuralNetworks #CNN #RNN #LSTM #Python #DataScience #ArtificialIntelligence #AndrewNg #DeepLearningAI #ComputerVision #NLP #LearnAI @TheInfinityAI
Article 34: Sequence Modeling โ RNN, LSTM, and GRU ๐ง ๐
Standard Neural Networks assume that all inputs and outputs are independent of each other. But in language, the word "bank" means something different depending on the previous words ("river bank" vs. "money bank"). Sequence models have a memory to remember past information.
1. Recurrent Neural Networks (RNNs) ๐
An RNN processes a sequence one step at a time. It keeps an internal state (a hidden memory) that gets passed from one step to the next.
The Math (Step-by-Step) ๐งฎ
At time step t,
More - Click here...
2. The Big Problem with Standard RNNs โ ๏ธ
Standard RNNs work well for short sequences, but they fail on long sequences due to the Vanishing Gradient Problem.
3. Long Short-Term Memory (LSTM) ๐๐ง
To fix the vanishing gradient problem, the LSTM architecture was invented. An LSTM adds a Cell State that acts like a highway for information to flow unchanged, controlled by three mathematical Gates,
More - Click here...
4. Gated Recurrent Unit (GRU) โก๏ธ
A GRU is a streamlined version of the LSTM. It merges the cell state and hidden state and reduces the three gates down to Two Gates,
GRUs have fewer parameters than LSTMs. It making them faster to train while offering nearly identical performance.
Summary ๐
RNNs process sequence data step-by-step using a hidden memory. Standard RNNs suffer from Vanishing Gradients, so we use LSTMs (3 gates) or GRUs (2 gates) to retain long-term dependencies effectively.
In the next article (Article 35), we start Phase 10: Advanced AI & Transformers, diving into Attention Mechanisms and Transformers! โก๏ธ๐ฅ ๐๐
โ๏ธ @TheInfinityAI
Standard Neural Networks assume that all inputs and outputs are independent of each other. But in language, the word "bank" means something different depending on the previous words ("river bank" vs. "money bank"). Sequence models have a memory to remember past information.
1. Recurrent Neural Networks (RNNs) ๐
An RNN processes a sequence one step at a time. It keeps an internal state (a hidden memory) that gets passed from one step to the next.
The Math (Step-by-Step) ๐งฎ
At time step t,
The network takes the current input and the previous memory
It combines them to make the new memory
It uses new memory to produce an output
More - Click here...
2. The Big Problem with Standard RNNs โ ๏ธ
Standard RNNs work well for short sequences, but they fail on long sequences due to the Vanishing Gradient Problem.
๐ Vanishing Gradient
When backpropagating through many time steps (Backpropagation Through Time), the gradients get multiplied repeatedly by small numbers.
๐ต The Result
The gradient becomes nearly zero. The model forgets what happened at the beginning of the text or series.
3. Long Short-Term Memory (LSTM) ๐๐ง
To fix the vanishing gradient problem, the LSTM architecture was invented. An LSTM adds a Cell State that acts like a highway for information to flow unchanged, controlled by three mathematical Gates,
Forget Gate - Decides what information from the past to throw away.
Input Gate - Decides what new information to store in the cell state.
Output Gate - Decides what the next hidden state should be based on the updated cell state.
More - Click here...
4. Gated Recurrent Unit (GRU) โก๏ธ
A GRU is a streamlined version of the LSTM. It merges the cell state and hidden state and reduces the three gates down to Two Gates,
Reset Gate - Decides how much past information to forget.
Update Gate - Combines the jobs of the input gate and forget gate.
GRUs have fewer parameters than LSTMs. It making them faster to train while offering nearly identical performance.
Summary ๐
RNNs process sequence data step-by-step using a hidden memory. Standard RNNs suffer from Vanishing Gradients, so we use LSTMs (3 gates) or GRUs (2 gates) to retain long-term dependencies effectively.
In the next article (Article 35), we start Phase 10: Advanced AI & Transformers, diving into Attention Mechanisms and Transformers! โก๏ธ๐ฅ ๐๐
โ๏ธ @TheInfinityAI
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