Commuting model and regional opportunities for sustainable economic development

第3章: 国際ワークショップ "Industrial Estate in Southeast Asia and Regional Social Development” の開催 (2009年)Chương 3: Kỷ yếu Hội thảo quốc tế “TÁC ĐỘNG XÃ HỘI VÙNG CỦA CÁC KHU CÔNG NGHIỆP ỞCÁC NƯỚC ĐÔNG NAM Á VÀ VIỆT NAM” (năm 2009

細胞移植によるジストロフィンの補充は、デュシェンヌ型筋ジストロフィーマウスの運動機能改善に有効であり、特に筋疲労耐性を改善する

京都大学新制・課程博士博士(人間健康科学)甲第25922号人健博第133号京都大学大学院医学研究科人間健康科学系専攻(主査)教授 緑川 光春, 教授 澤本 伸克, 教授 井上 治久学位規則第4条第1項該当Doctor of Human Health SciencesKyoto UniversityDFA

大腿骨近位部骨折で手術を要する患者に対する内科診療プロトコールの導入が診療ガイドライン遵守に及ぼす影響: 全国の入院患者データベースを用いた分割時系列解析

京都大学新制・論文博士博士(医学)乙第13680号論医博第2347号(主査)教授 池口 良輔, 教授 松田 秀一, 教授 井上 悠輔学位規則第4条第2項該当Doctor of Medical ScienceKyoto UniversityDFA

近現代日本における天皇と競馬

京都大学新制・課程博士博士(人間・環境学)甲第26094号人博第1172号京都大学大学院人間・環境学研究科共生文明学専攻(主査)教授 小倉 紀蔵, 教授 細見 和之, 教授 石岡 学, 濱田 陽学位規則第4条第1項該当Doctor of Human and Environmental StudiesKyoto UniversityDGA

Emergent Lorentzian dispersion relations from a Euclidean scalar-tensor theory

Can one be fooled into thinking that space and time are fundamentally described by a Lorentzian manifold? In this article, we describe a scenario in which a theory constructed on a (Euclidean signature) Riemannian manifold can lead to degrees of freedom with Lorentzian dispersion relations, due to a nontrivial configuration of a scalar field. In particular, we perform a perturbative analysis of a renormalizable shift-symmetric scalar-tensor theory and find that it can, in principle, admit a massless tensor degree of freedom with a Lorentzian dispersion relation. While the remaining degrees of freedom in the gravity sector will, in general, satisfy Euclidean dispersion relations, we argue that they can be brought under control by elliptic equations with an appropriate choice of boundary conditions

小脳プルキンエ細胞出力のcAMPによる軸索長依存的調節メカニズム

京都大学新制・課程博士博士(理学)甲第25849号理博第5160号京都大学大学院理学研究科生物科学専攻(主査)教授 川口 真也, 教授 杤尾 豪人, 准教授 寺川 剛学位規則第4条第1項該当Doctor of ScienceKyoto UniversityDFA

Development of a numerical model on cohesive and non-cohesive lahars based on experiments

研究代表者: 常松 佳恵Coordinator: Kae Tsunemats

Distributed Server Allocation for Internet-of-Things Monitoring Services With Preventive Start-Time Optimization Against Server Failure

Internet-of-Things (IoT) services require high performance regarding low delay and fault tolerance. Distributed server allocation is well-suited for meeting these requirements in IoT monitoring services. Previous work focused on reducing delay but overlooked the need for fault tolerance in distributed server allocation. This paper proposes a distributed server allocation model based on preventive start-time optimization (PSO) for IoT monitoring services against server failure. The proposed model preventively determines the server allocation to minimize the largest maximum delay between IoT devices and application servers and between database and application servers among all failure patterns. We formulate the proposed model as an integer linear programming (ILP) problem. We introduce a server allocation algorithm based on PSO to accelerate the computation to obtain an optimal server allocation, compared to the ILP approach. We prove that the introduced algorithm obtains a PSO-based optimal allocation in polynomial time. Numerical results show that the introduced algorithm outputs an optimal server allocation faster than the ILP approach. We compare the PSO-based server allocation with allocations based on the start-time and run-time optimization. We observe that the PSO-based allocation reduces the largest maximum delay by 5.5% for a network model with eleven servers compared to the start-time optimization and avoids unnecessary network disconnections while increasing the maximum delay by 5.1% compared to the run-time optimization

Project 7 Estimation for 3D Distribution of Biological and Chemical Doses for BNCT

In case that corrections are made, overwrite the modified version in the following web page: https://www.rri.kyoto-u.ac.jp/PUB/report/PR/ProgRep2024/ProgRep2024.htmlPR7-1 Establishment of Beam-quality Estimation Method in BNCT Irradiation Field using Dual Phantom Technique (VIII)/ Y. Sakurai et al. (R6P7-1) [48]PR7-2 Biological effects of BNCT on glioma cells in 3D culture/ N. Kondo et al. (R6P7-2) [49]PR7-3 The Response After BNCT on 3D Oral Cancer Model Using Patient-Derived Cancer-Associated Fibroblasts/ K. Igawa et al. (R6P7-3) [50]PR7-4 Verfication of BNCT Effect on Hematological Cancer Cells and Dosimetry for Expansion of BNCT Cases/ S. Yoshihashi et al. (R6P7-4) [51]PR7-5 Development and evaluation of 3D gel dosimeter for the measurement of dose distribution in BNCT/ S. Hayashi et al. (R6P7-7) [52]PR7-6 Establishment of Three-dimensional Dose Distribution Estimation Method for BNCT using Radiochromic Gel Dosimeter (II)/ Y. Sakurai et al. (R6P7-8) [53]PR7-7 Measurement of Neutron Depth Distribution for Quality Assurance in Boron Neutron Capture Therapy/ M. Takada et al. (R6P7-10) [54]PR7-8 Measurement of wavelength-dependent luminescence for beam quality assurance of BNCT/ K. Tanaka et al. (R6P7-11) [55]PR7-9 Feasibility of Water/Fat Decomposition Technique Using Multi-Energy X-ray Computed Tomography for BNCT Dose Calculation/ T. Takata et al. (R6P7-12) [56