ACM Transactions on Modeling and Computer SimulationACM建模与计算机仿真汇刊

ACM Transactions on Modeling and Computer Simulation(英文缩写 ACM T MODEL COMPUT S),ISSN 1049-3301,eISSN 1558-1195,中文译名:ACM建模与计算机仿真汇刊 是一本学术期刊。本页汇总该期刊的最新影响因子、分区信息以及最新收录于 PubMed 的文献,帮助您快速了解期刊全貌。

2026 年数据 · 影响因子
1.400
JCR 分区
Q2
CAS 分区
B4
近一年发文量
0
本站 PubMed 收录统计

发文量统计区间:2025-10-01 至 2026-09-30,按本站收录文献的发表日期统计。

ISSN: 1049-3301 · eISSN: 1558-1195 · 缩写: ACM T MODEL COMPUT S ·中文: ACM建模与计算机仿真汇刊

期刊介绍

选择期刊介绍栏目

期刊简介

ACM Transactions on Modeling and Computer Simulation(TOMACS)是ACM旗下聚焦建模与计算机仿真的学术期刊,主要发表离散事件仿真、随机建模、仿真优化、并行与分布式仿真以及仿真方法论等方面的原创研究。读者群包括计算机科学、运筹学、系统工程和统计学领域的研究人员与研究生,强调理论深度与算法创新,在仿真学界具有稳定的学术影响力。

研究方向

主要方向涵盖离散事件与连续系统仿真、随机过程建模、蒙特卡洛方法、仿真优化与灵敏度分析、并行和分布式仿真、仿真语言与工具、以及仿真在制造、网络、医疗等领域的应用。论文类型以理论性研究论文为主,兼有方法综述和少量应用案例,重视模型构建的严谨性与实验可重复性。

期刊特色

研究取向偏重方法论与算法贡献,要求数学推导清晰、实验设计规范,并对仿真结果进行统计分析。论文通常篇幅较长,强调与既有方法的对比和理论保证。适合从事仿真理论、随机建模和系统优化研究的学者、博士后及高年级博士生阅读和投稿。

投稿难度

投稿难度中等偏上,期刊重视方法创新与理论严谨性,仅凭分区难以判断录用前景。建议在投稿前明确仿真方法的新颖点,完善收敛性或复杂度分析,并补充充分的对比实验;若偏应用需突出对仿真方法论的推动,语言表达和实验可重复性也需仔细打磨。

历年影响因子趋势

JCR 数据年份影响因子JCR 分区
20210.851Q4
20220.900Q3
20230.700Q3
20241.900Q1
20251.400Q2

ACM Transactions on Modeling and Computer Simulation 最新收录文献

  1. JCR分区: Q2 CAS分区: B4 影响因子: 1.4

    1. Indemics: An Interactive High-Performance Computing Framework for Data Intensive Epidemic Modeling.

    作者:
    Keith R Bisset, Jiangzhuo Chen, Suruchi Deodhar, Xizhou Feng, Yifei Ma, Madhav V Marathe
    日期:
    2014-01

    We describe the design and prototype implementation of Indemics (Interactive EpidemicSimulation)-a modeling environment utilizing high-performance computing technologies for supporting complex epidemic simulations. Indemics can support policy analysts and epidemiologists interested in planning and control of pandemics. Indemics goes beyond traditional epidemic simulations by providing a simple and powerful way to represent and analyze policy-based as well as individual-based . Users can also stop the simulation at any point, assess the state of the simulated system, and add additional interventions. Indemics is available to end-users via a web-based interface. Detailed performance analysis shows that Indemics greatly enhances the capability and productivity of simulating complex intervention strategies with a marginal decrease in performance. We also demonstrate how Indemics was applied in some real case studies where complex interventions were implemented.

  2. JCR分区: Q2 CAS分区: B4 影响因子: 1.4

    2. Massive parallelization of serial inference algorithms for a complex generalized linear model.

    作者:
    Marc A Suchard, Shawn E Simpson, Ivan Zorych, Patrick Ryan, David Madigan
    日期:
    2013-01

    Following a series of high-profile drug safety disasters in recent years, many countries are redoubling their efforts to ensure the safety of licensed medical products. Large-scale observational databases such as claims databases or electronic health record systems are attracting particular attention in this regard, but present significant methodological and computational concerns. In this paper we show how high-performance statistical computation, including graphics processing units, relatively inexpensive highly parallel computing devices, can enable complex methods in large databases. We focus on optimization and massive parallelization of cyclic coordinate descent approaches to fit a conditioned generalized linear model involving tens of millions of observations and thousands of predictors in a Bayesian context. We find orders-of-magnitude improvement in overall run-time. Coordinate descent approaches are ubiquitous in high-dimensional statistics and the algorithms we propose open up exciting new methodological possibilities with the potential to significantly improve drug safety.

  3. JCR分区: Q2 CAS分区: B4 影响因子: 1.4

    3. A Distributed Platform for Global-Scale Agent-Based Models of Disease Transmission.

    作者:
    Jon Parker, Joshua M Epstein
    日期:
    2011-12

    The Global-Scale Agent Model (GSAM) is presented. The GSAM is a high-performance distributed platform for agent-based epidemic modeling capable of simulating a disease outbreak in a population of several billion agents. It is unprecedented in its scale, its speed, and its use of Java. Solutions to multiple challenges inherent in distributing massive agent-based models are presented. Communication, synchronization, and memory usage are among the topics covered in detail. The memory usage discussion is Java specific. However, the communication and synchronization discussions apply broadly. We provide benchmarks illustrating the GSAM's speed and scalability.

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