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Jin Kim

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4 papers
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4

NeurIPS Conference 2025 Conference Paper

First Attentions Last: Better Exploiting First Attentions for Efficient Parallel Training

  • Gyudong Kim
  • Hyukju Na
  • Jin Kim
  • Hyunsung Jang
  • Jaemin Park
  • Jaegi Hwang
  • Namkoo Ha
  • Seungryong Kim

As training billion-scale transformers becomes increasingly common, employing multiple distributed GPUs along with parallel training methods has become a standard practice. However, existing transformer designs suffer from significant communication overhead, especially in Tensor Parallelism (TP), where each block’s MHA–MLP connection requires an all-reduce communication. Through our investigation, we show that the MHA-MLP connections can be bypassed for efficiency, while the attention output of the first layer can serve as an alternative signal for the bypassed connection. Motivated by the observations, we propose FAL (First Attentions Last), an efficient transformer architecture that redirects the first MHA output to the MLP inputs of the following layers, eliminating the per-block MHA-MLP connections. This removes the all-reduce communication and enables parallel execution of MHA and MLP on a single GPU. We also introduce FAL+, which adds the normalized first attention output to the MHA outputs of the following layers to augment the MLP input for the model quality. Our evaluation shows that FAL reduces multi-GPU training time by up to 44%, improves single-GPU throughput by up to 1. 18×, and achieves better perplexity compared to the baseline GPT. FAL+ achieves even lower perplexity without increasing the training time than the baseline. Codes are available at: https: //casl-ku. github. io/FAL/

NeurIPS Conference 2017 Conference Paper

How regularization affects the critical points in linear networks

  • Amirhossein Taghvaei
  • Jin Kim
  • Prashant Mehta

This paper is concerned with the problem of representing and learning a linear transformation using a linear neural network. In recent years, there is a growing interest in the study of such networks, in part due to the successes of deep learning. The main question of this body of research (and also of our paper) is related to the existence and optimality properties of the critical points of the mean-squared loss function. An additional primary concern of our paper pertains to the robustness of these critical points in the face of (a small amount of) regularization. An optimal control model is introduced for this purpose and a learning algorithm (backprop with weight decay) derived for the same using the Hamilton's formulation of optimal control. The formulation is used to provide a complete characterization of the critical points in terms of the solutions of a nonlinear matrix-valued equation, referred to as the characteristic equation. Analytical and numerical tools from bifurcation theory are used to compute the critical points via the solutions of the characteristic equation.

ICRA Conference 2001 Conference Paper

Pursuit-Evasion Games with Unmanned Ground and Aerial Vehicles

  • René Vidal
  • Shahid Rashid
  • Courtney S. Sharp
  • Omid Shakernia
  • Jin Kim
  • S. Shankar Sastry

Presents the implementation of a hierarchical architecture for the coordination and control of a heterogeneous team of autonomous agents. We consider the problem of having a team of agents pursue a second team of evaders while building a map of the environment. The control architecture emphasizes the autonomy of each agent yet allows for coordinated efforts among them. We address the technical challenges and implementation issues of multi-agent operation. Finally we present experimental results of a pursuit-evasion game scenario between unmanned ground and aerial vehicles.

AAAI Conference 1983 Conference Paper

TALIB: An IC Layout Design Assistant

  • Jin Kim

This paper describes a knowledge-based system for automatically synthesizing integrated circuit layouts for NMOS cells. The desired cell layouts are specified in terms of their general structural and functional characteristics. From these initial specifications, the system produces correct and compact cell layouts. The system performs this task by generating plan steps at different levels of abstraction and opportunistically refining each plan step at one level to more specific steps at a lower level. Although the implementation of this system has focused on NMOS technology, the techniques used are not restricted to that technology.'

v2026.09.13