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Parallelization The native layers

Posted: Mon Dec 23, 2024 10:38 am
by rifattryo.ut11
. . , at the end of - (as shown in the figure above). Now we can use the simplified - case above to demonstrate these calculations. Representation = [, . . . , ]: So it can be easily calculated. To calculate = [, . . . , ] we know: Representation and matrix can be obtained: As above, the researchers call it the "dual form". . Theoretical equivalence As mentioned earlier, it can be a linear model or a neural network. There are also three variants of the update rule: , and -.



Each of these combinations induces a different japan mobile number instantiation of the layer, as shown in the figure below. In the study, the authors prove from a theorem that a layer with linear models and in these induced instances is equivalent to linear attention - a well-known layer. The figure summarizes the general definition of the layer in the broader context of all sequence modeling layers. . Two variants In the study, the authors propose two variants of the layer - and - that differ only in the instantiation of . For - where is squared.



For - there are two layers similar to . Specifically, the hidden dimension is the input dimension and then the activation. For better stability during , layer normalization () and residual connections are always included. That is, where can be or. Experiments The researchers evaluated - and - by comparing with two baselines and (modern). Dataset Continuing from the paper, the researchers performed standard experiments with k and k context lengths on , a popular document dataset used for training open source. The main architectures and use different architectures of - and - unless otherwise stated.