Publication of "Attention Is All You Need" (2017)
The Google Brain team is presenting their groundbreaking paper 'Attention Is All You Need' at a research meeting, introducing the Transformer architecture that will revolutionize AI and machine learni
Setting
Google Brain headquarters conference room, Mountain View, California. A modern, spacious room with floor-to-ceiling windows overlooking the Google campus. The room is equipped with state-of-the-art presentation technology, including a large projector screen and multiple monitors.
Characters
The figures in this scene as an entity network — co-presence links everyone in the moment; speakers who trade lines are bound tighter. Turn the resolution dial to reveal depth the engine actually computed.
TNGF
SELECTED
Ashish Vaswani
primary
A man in his mid-30s with a lean build, short dark hair, and a neatly trimmed beard. His sharp, intelligent eyes are framed by rectangular glasses, and he has a composed yet approachable demeanor.
Noam Shazeer
primary
A tall, lean man in his late 30s with short, dark brown hair and a neatly trimmed beard. His sharp, intelligent eyes are framed by rectangular glasses, and he has a confident, approachable demeanor.
Senior Researcher
secondary
A middle-aged man with a slightly receding hairline, wearing thin-rimmed glasses. His face shows signs of deep thought, with faint wrinkles around his eyes from years of intense focus. He has a lean but not athletic build, typical of someone who spends long hours at a desk.
Junior Researcher
secondary
A young engineer in their mid-20s with a slim build, short dark hair, and glasses. Their face is animated with curiosity and excitement, and they have a slightly hunched posture from leaning forward intently.
Engineering Lead
background
A middle-aged man with a lean build, short-cropped dark hair with slight graying at the temples, and a neatly trimmed beard. He has sharp, observant eyes and a composed demeanor, exuding quiet authority.
Dialog
Ashish Vaswani
To put it simply, the Transformer architecture eliminates the need for recurrence entirely—self-attention allows us to model dependencies regardless of distance.
Senior Researcher
Help me understand—how does your positional encoding compare to traditional RNN-based approaches in handling long-range dependencies?
Noam Shazeer
Think of it like this: instead of forcing the model to traverse sequences step-by-step, we give it a bird's-eye view of all positions simultaneously. The attention weights handle the rest.
Ashish Vaswani
As the data shows on slide 12, our approach reduces training time by 75% compared to LSTMs—with better accuracy on WMT benchmarks.
Senior Researcher
Those are impressive numbers. But does the quadratic memory complexity of self-attention limit your maximum sequence length in practice?
Noam Shazeer
Ah—that's where our multi-head attention shines. By splitting the computation, we keep memory usage manageable while preserving the global context.
Ashish Vaswani
Exactly. And early experiments suggest this architecture could scale far beyond what we've shown today—that's what excites me most.
Chat with Characters
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