Sometimes, the life you dream of becomes the life you wish you could escape. π
When weβre single, we dream of love. When weβre in a relationship, we miss our freedom.
When we live with our parents, we canβt wait to move out. But once we leave, we miss the little things, like hearing Dad say, βBe safe.β β€οΈ
At 16, we canβt wait to grow up. Then adulthood arrives, and suddenly we miss those carefree days with our friends.
Funny how we spend so much time wishing for the next chapter that we forget to enjoy the one weβre living.
The truth is, every stage of life has something beautiful that we may not fully appreciate until it becomes a memory.
So love the people around you. Enjoy the little moments. Take the pictures. Make the memories. And stop rushing through the life you once wished for. β¨
One day, todayβs ordinary moments might become your most precious memories. β€οΈ
#LifeLesson
@MrDevEm
β€4π1
Forwarded from Tad
π¨ BREAKING NEWS: OUR PEACEFUL LIFE IS OVER! ππ»
tajuHub fam! π
New semester, new courses, same students who still haven't recovered from last semester. π
π This semester we're fighting:
1. Compiler Design β Who compiled my happiness? π
2. Real Time & Embedded Systems β No time to breathe, apparently.
3. Mobile App Development β At least our apps might work.
4. Fundamentals of AI β AI will do the assignment, right? π€
5. Software Testing & QA β Testing our patience more than software.
6. Global Trend β Trending globally, suffering locally. π
Our mission: Attend class, understand something, survive exams, and graduate before our laptops do. π«‘
Good luck, future engineers! May our code compile and our grades be higher than our screen time. π
#TajuHub #SoftwareEngineering #MekelleUniversity #SemesterSurvival
tajuHub fam! π
New semester, new courses, same students who still haven't recovered from last semester. π
π This semester we're fighting:
1. Compiler Design β Who compiled my happiness? π
2. Real Time & Embedded Systems β No time to breathe, apparently.
3. Mobile App Development β At least our apps might work.
4. Fundamentals of AI β AI will do the assignment, right? π€
5. Software Testing & QA β Testing our patience more than software.
6. Global Trend β Trending globally, suffering locally. π
Our mission: Attend class, understand something, survive exams, and graduate before our laptops do. π«‘
Good luck, future engineers! May our code compile and our grades be higher than our screen time. π
#TajuHub #SoftwareEngineering #MekelleUniversity #SemesterSurvival
π4
π1
Tron | The Asylum
Good morning ppl β¨ Glory glory man united π
We have to make the day productive ββ
π3
Forwarded from Ctrl+code β¨οΈ
Forwarded from DoughNut π©
Having no co-founder means basically your startup has 10-20% of succeeding.
Having a bad co-founder means your startup has 100% failure rate π
Having a bad co-founder means your startup has 100% failure rate π
NIPS-2017-attention-is-all-you-need-Paper.pdf
556.1 KB
This is the research paper that laid the foundation for modern LLM architectures.
π3
Tron | The Asylum
NIPS-2017-attention-is-all-you-need-Paper.pdf
It is recommended to us by our instructor, and we're going to understand every bit of it part by part !
Tron | The Asylum
NIPS-2017-attention-is-all-you-need-Paper.pdf
PART 1: UNDERSTANDING MODERN AI
In 2017, a team of researchers introduced a new neural network architecture called the Transformer.
This research fundamentally changed Natural Language Processing (NLP) and laid the foundation for modern Large Language Models (LLMs), including GPT.
1. What existed before Transformers?
Before Transformers, many NLP systems relied on recurrent neural network architectures such as: RNN (Recurrent Neural Networks), LSTM (Long Short-Term Memory), GRU (Gated Recurrent Units).
These models generally processed text sequentially, one token at a time. For example: "The student is learning AI."
The model would process:
The β student β is β learning β AIβ οΈ The limitations:
β’ Sequential processing made parallel computation difficult.
β’ Capturing relationships between distant words was challenging.
β’ Training on long sequences could be computationally demanding.
2. What did the researchers introduce?
The researchers proposed the Transformer architecture, which relies on attention mechanisms instead of recurrence or convolution for modeling relationships between tokens.
The key innovation was Self-Attention. Unlike recurrent models, which process tokens sequentially, the original Transformer's encoder can process all input tokens simultaneously.
This makes training more parallelizable and allows the model to capture relationships between tokens regardless of their distance in the sequence.
3. How does a Transformer work?
Consider this sentence:
"The animal didn't cross the street because it was tired."
How do we know that "it" refers to "the animal" rather than "the street"? We understand it through context.
Transformers use Self-Attention to learn relationships between tokens and determine which parts of a sequence are relevant to one another.
At a high level, the process involves:
1οΈβ£ Tokenization: Text is divided into smaller units called tokens.
2οΈβ£ Embedding: Tokens are converted into numerical representations.
3οΈβ£ Positional Encoding: Information about token positions is incorporated.
4οΈβ£ Self-Attention: Tokens exchange information based on learned attention weights.
5οΈβ£ Feed-Forward Networks: The resulting representations are further transformed.
These operations are repeated across multiple Transformer layers.
4. Why does this matter?
The Transformer architecture became the foundation for many influential AI models, including: GPT (Decoder-only Transformer), BERT (Encoder-only Transformer), T5 (Encoder-Decoder Transformer).
Today, Transformers are central to many modern AI systems, including large language models (LLMs).
#ArtificialIntelligence #MachineLearning #Transformers #LLM
@MrDevEm
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PART 2: UNDERSTANDING MODERN AI (FINAL)
In Part 1, we explored how Transformers replaced recurrence with attention-based processing. Now, let's look deeper into Self-Attention and how modern LLMs use it.
1. Understanding Self-Attention
Self-Attention allows a model to learn relationships between tokens by assigning different attention weights to them.
It uses three components:
πΉ Query (Q): What information is a token looking for?
πΉ Key (K): What information does a token offer for matching?
πΉ Value (V): What information does a token contribute?
Each token is transformed into Q, K, and V vectors using learned weight matrices.
The model compares Queries with Keys, calculates attention weights, and uses those weights to combine Values.
The mathematical formula is:
Attention(Q, K, V) = softmax(QKα΅ / βdβ)VThis is called Scaled Dot-Product Attention.
2. Multi-Head Attention
Instead of using a single attention mechanism, Transformers use multiple attention heads in parallel.
Each head learns different projections of the input, allowing the model to capture different relationships, such as grammatical patterns, contextual meaning, and long-distance dependencies.
The outputs are combined to produce richer representations.
3. How Do Modern LLMs Use Transformers?
Different models use different Transformer architectures:
πΉGPT: Decoder-only Transformer.
πΉBERT: Encoder-only Transformer.
πΉT5: Encoder-Decoder Transformer.
Let's take GPT as an example. When you ask GPT a question:
1οΈβ£ Your text is converted into tokens and numerical embeddings.
2οΈβ£ The tokens pass through multiple Transformer layers containing masked Self-Attention and Feed-Forward Networks.
3οΈβ£ The model calculates probabilities for possible next tokens.
4οΈβ£ A token is selected, and the process repeats until the response is complete.
This process is called Autoregressive Generation.
Unlike the parallel processing of input sequences during training, GPT generates output tokens sequentially.
The key takeaway: LLMs don't simply retrieve predefined answers. They generate text using patterns and relationships learned during training.
#ArtificialIntelligence #MachineLearning #Transformers #LLM
@MrDevEm