nkysdb: なかよし論文データベース
鈴木 岳人 様の 共著関連データベース
+(A list of literatures under single or joint authorship with "鈴木 岳人")
共著回数と共著者名 (a list of the joint author(s))
50: 鈴木 岳人
19: 山下 輝夫
6: 松川 宏
4: 井出 哲
3: 並木 敦子
1: 今西 祐一, 伊藤 諒, 加藤 知瑛, 大久保 修平, 大森 秀一, 安藤 美和子, 平岡 喜文, 新林 張, 水野 尚人, 河野 葉子, 渡邉 篤志, 田中 愛幸, 矢部 優, 稲川 聡
発行年とタイトル (Title and year of the issue(s))
2003: 地震の初期破壊に対する温度・流体圧・空隙率の非線形な相互作用の効果(B003)
Effects of the nonlinear interaction among temperature, fluid pressure and porosity on the initiation of earthquakes(B003)
2004: 多孔質弾性体を用いた動的な地震破壊の多様性における熱的及び水力学的効果の解析(J078 011)
Analysis of thermo hydraulic effects on diversity of dynamic earthquake ruptures in a poroelastic medium (J078 011)
2005: 動的面内剪断破壊における温度・流体圧の効果(C040)
Effects of temperature and fluid pressure on dynamic in plate shear fractures (C040)
2005: 熱多孔質弾性体中における動的地震破壊の成長と滑り過程（S044 009）
Growth of dynamic earthquake ruptures and slip processes in a thermo poroelastic medium (S044 009)
2006: 熱多孔質弾性体中の動的面内剪断破壊における非弾性な効果(S109 010)
Inelastic effects on dynamic in plane shear rupture in thermoporoelastic media(S109 010)
2007: 単一の無次元パラメータに支配される動的地震破壊の多様性(S143 006)
Diversity of dynamic earthquake rupture controlled by a single nondimensional parameter(S143 006)
2007: 無次元パラメータSuで理解する動的地震破壊過程(C22 02)
Dynamic Earthquake Rupture Process Understood by the nondimensional parameter Su(C22 02)
2008: 動的断層滑りの振る舞いを支配する単一の無次元パラメータ(J158 018)
The single nondimensional parameter controlling the dynamic fault slip behavior(J158 018)
2008: 熱・流体圧・非弾性空隙率変化の相互作用によって生じるゆっくりした動的破壊(J158 017)
Slow dynamic rupture generated by the interaction among heat, fluid pressure and inelastic porosity change(J158 017)
2008: 異種多孔性媒質境界での地震破壊?非地震性滑りのモデル化(S142 018)
Earthquake rupture on poroelastic bimaterial interface: modeling of aseismic slip(S142 018)
2009: 一次元断層の動的振る舞いを支配する二つの無次元パラメータの導出(J169 003)
Derivation of the two nondimensional parameters controlling the dynamic behavior of a 1 D fault(J169 003)
2009: 動的地震破壊の包括的理解(S148 011)
Comprehensive understanding of dynamic earthquake rupture(S148 011)
2009: 地震のモーメントと滑り時間の関係−−熱・流体・非弾性な空隙生成の相互作用の効果−−（A32 03)
Relationship between Seismic Moment and Slip Duration Effects of the Interaction among Heat, Fluid Pressure and Inelastic Pore Creation (A32 03)
2010: ゆっくり地震の多様性の動的モデル化(SSS011 17)
Modeling of diverse aspects of slow earthquakes in a dynamical framework(SSS011 17)
2010: 動的地震破壊に伴う面外損傷発達に関するエネルギー収支（C22 12)(演旨）
Energy Balance in terms of Off fault Damage Evolution associated with Dynamic Earthquake Rupture (C22 12)(abs/)
2010: 非弾性な空隙生成の効果の空間不均質によるアスペリティのモデル化(SSS027 P22)
Modeling of Asperity in terms of Spatial Inhomogeneity in the Effect of Inelastic Pore Creation(SSS027 P22)
2011: 不均質応力場での動的地震破壊における熱･流体の効果(SCG060 P17)
The effect of heat and fluid on dynamic earthquake rupture in inhomogeneous stress field(SCG060 P17)
2011: 動的地震破壊に伴って生成する微小亀裂の向きと二次破壊への影響(B32 08)
Orientation of Microcracks Associated with Dynamic Earthquake Rupture and their Effect on the Secondary Rupture (B32 08)
2011: 損傷発達によるエネルギー変化に基づく二次的破壊の多様性の理解(SSS025 10)
Understanding of diversity of the secondary fracture based on energy change due to damage evolution(SSS025 10)
2011: 非弾性な効果の観点による地震破壊過程の動的枠組みの構築(SSS029 01)
Constructing a dynamic framework of earthquake rupture process in terms of inelastic effect(SSS029 01)
2012: 2つの無次元数による繰り返し地震の発生間隔とモーメントの理解(A12 08)
Understanding of Intervals and Moments of Repeating Earthquakes using Two Nondimensional Parameters (A12 08)
2012: 損傷生成に関する無次元数によって特徴付けられる二次破壊の振る舞い(SSS28 P01)
Secondary faulting behavior characterized by nondimensional parameters associated with damage evolution(SSS28 P01)
2012: 自然断層周辺に見られる微小亀裂の分布形状に関する数値計算(SSS29 P06)
Numerical simulation of a shape of an off fault microcrack distribution observed in natural faults(SSS29 P06)
2013: 地球浅部のレオロジーが決める最大地震サイズ(SSS31 P25)
Regulation of maximum earthquake sizes by the lithospheric rheology (SSS31 P25)
2013: 数理物理的視野に立った動的地震破壊過程の包括的理解
Unified Understanding of Dynamic Earthquake Rupture Process based on Mathematical Physics
2013: 熱・流体圧・空隙生成系の振る舞いを支配する関数の導出とその応用
Deriving the Governing Function for the System of Heat, Fluid Pressure and Inelastic Porosity and its Application
2013: 空隙発展則に関する無次元パラメータとその動的滑りへの影響(SSS28 04)
Nondimensional Controlling Parameter about Inelastic Porosity Evolution Law and its Effect on Dynamic Earthquake Slip (SSS28 04)
2013: 速度状態依存摩擦則を用いた非平面断層における震源核形成過程
Earthquake nucleation on nonplanar faults with rate and state dependent friction law
2014: 熱・流体圧・空隙生成系中の滑りに伴う温度変化の解析的・数値的考察(A31 12)
Analytical and Numerical Investigation of Temperature Change associated with Slip in a System of the Interaction among Heat, Fluid Pressure and Dilatancy (A31 12)
2015: 流れを伴う熱・流体圧・空隙生成系中の滑り速度及び地震モーメントの包括的理解(S08 P23)
Unified Understanding of Slip Velocity and Seismic Moment within the System of the Interaction among Heat, Fluid Pressure and Dilatancy with Fluid Flow (S08 P23)
2015: 流体の流れがない系における動的地震滑りの振る舞いの体系的理解(SSS30 08)
Systematic Understanding of Dynamic Earthquake Slip Process in the System without Fluid Flow (SSS30 08)
2016: 滑り端伝播における自発的な静摩擦力の発現と動摩擦力の消失(SSS27 01)
Spontaneous Emergence of Static Friction Force and Vanishment of Dynamic Friction Force in Slip Front Propagation (SSS27 01)
2016: 滑り速度の二次の摩擦則及び粘性を持つ系における滑り端伝播速度と静摩擦力の振る舞い(S08 15)
Slip Front Propagation Velocity and Static Friction Force in the System with the Friction Law Depending on the Slip Velocity in the Quadratic Form and the Viscosity (S08 15)
2016: 粘弾性体におきる地震の模擬実験 粘性緩和で最大マグニチュードが決まる (SCG58 07)
Earthquake model experiments in a viscoelastic fluid: A scaling of decreasing magnitudes of earthquakes with depth (SCG58 07)
2017: Point and Line Attractors Emerging in the System Including the Interaction among Heat, Fluid Pressure and Dilatancy (SSS04 P65)
2017: 共通のヌルクラインを持つ系に現れる普遍性とその地震学的意義(S08 18)
Universality Emerging in the System with Common Nullclines and Its Seismological Implications (S08 18)
2018: 亀裂の最終滑り量の初期流体圧分布に対する鋭敏性とその地震学的意義(S08 27)
Sensitivity of the Final Slip Amount of a Crack to the Initial Fluid Pressure Profile and Its Seismological Implications (S08 27)
2018: 普遍性から導かれる最終滑り量の初期滑り速度鋭敏性(SCG53 31)
Sensitivity of the Final Slip Amount to the Initial Slip Velocity Derived from the Universal Law (SCG53 31)
2018: 東海地方の重力の時間変化とスロースリップとの関係(SCG53 15)
Temporal gravity anomalies observed in the Tokai area and a possible relationship with slow slips (SCG53 15)
2019: 多孔質媒質中での渦粘性の時間発展の理解とその地震学的意義(S08 14)
Understanding of temporal evolution of the eddy viscosity in porous media and its seismological implications (S08 14)
2019: 多孔質媒質中の乱流におけるk εモデルの解軌道(SCG48 32)
Solution Orbit for k and epsilon Model for Turbulent Flow in Porous Media (SCG48 32)
2020: 2種類の滑り端伝播と線形臨界定性解析によるその伝播速度の解析(S08 16)
Two forms of the slip fronts and analyzing their propagation velocities by Linear Marginal Stability Hypothesis (S08 16)
2020: スロー地震と巨大地震が共存する浅部デコルマの断層破壊メカニズム：掘削試料を用いた断層破壊数値計算による検討(SSS15 18)
Coexistence of slow earthquakes and megathrust earthquakes on the shallow plate boundary fault: Numerical simulation study on fault ruptures along the fault rock samples acquired by ocean drilling science (SSS15 18)
2021: 2種類の滑り伝播端形状に対する伝播速度の存在条件とその物理的解釈(S08 17)
Conditions for the existence of the propagation velocities for two forms of the slip fronts and their physical interpretations (S08 17)
2021: 線形臨界安定性解析の観点による滑り端伝播速度の統一的理解(SCG39 07)
Systematic understanding of the slip front propagation velocity in terms of Linear Marginal Stability Hypothesis (SCG39 07)
2022: BKモデルと熱・流体・空隙相互作用に基づくゆっくり－高速地震遷移の多様性の理解(S08 37)
Understanding of variety of the transition from slow to fast earthquakes via the BK model and the interaction among heat, fluid pressure and porosity (S08 37)
2022: Condition for the transition from slow to fast earthquakes analyzed by the BK model with the interaction among heat, fluid pressure, and porosity (SCG44 12)
2023: ゆっくり・高速地震遷移条件の解析的取り扱いとその妥当性(S08 11)
Analytical treatment of transition condition between slow and fast earthquakes and its validity (S08 11)
2023: ゆっくり地震と高速地震の振る舞いの多様性における空隙率の上限の効果(SCG45 P46)
Effect of the upper limit of the porosity on variation of behavior of slow and fast earthquakes (SCG45 P46)
2024: 熱・流体相互作用と速度状態依存摩擦則に基づく亀裂端伝播速度の解析(S08P 17)
Analysis of rupture velocity based on the interaction between heat and fluid pressure and the rate and state dependent friction law (S08P 17)