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Scopus著者プロファイル
小茂鳥 潤
機械工学科
ウェブサイト
https://k-ris.keio.ac.jp/html/100011272_ja.html
h-index
2128
被引用数
24
h 指数
Pureの文献数とScopusの被引用数に基づいて算出されます
1987 …
2025
年別の研究成果
概要
フィンガープリント
ネットワーク
研究成果
(218)
類似のプロファイル
(6)
フィンガープリント
Jun Komotoriが活動している研究トピックを掘り下げます。このトピックラベルは、この研究者の研究成果に基づきます。これらがまとまってユニークなフィンガープリントを構成します。
並べ替え順
重み付け
アルファベット順
Material Science
Fine Particle
100%
Mechanical Strength
49%
Titanium Alloys
45%
Ti-6Al-4V
36%
Corrosion Resistance
35%
Stainless Steel
30%
Residual Stress
28%
Oxide Compound
28%
Nitriding
28%
Wear Resistance
25%
Surface Property
25%
Surface Property
24%
Low-Cycle Fatigue
24%
Surface Treatment
23%
Scanning Electron Microscopy
19%
Biocompatibility
19%
Surface Roughness
18%
Corrosion
18%
Titanium
16%
Fatigue of Materials
15%
Machining
15%
Carbon Steel
15%
Chromium
15%
X-Ray Diffraction
14%
Metallic Biomaterial
13%
Carbon Fiber Reinforced Plastics
11%
Oxidation Reaction
11%
Austenitic Stainless Steels
11%
Delamination
10%
Electrochemical Cell
10%
High Strength Steels
9%
Fibroblast
8%
Surface Fatigue
8%
High Speed Steel
8%
Film
8%
Biomaterial
8%
Carburization
8%
Intermetallics
8%
Stress Relaxation
8%
Ultimate Tensile Strength
8%
Electrochemical Corrosion
7%
Powder
7%
Low Carbon Steel
7%
Energy-Dispersive X-Ray Spectroscopy
7%
Volume Fraction
6%
Nickel Titanium Alloy
6%
Osteoblast
6%
Diamond-Like Carbon
6%
Diamond-Like Carbon Coating
6%
Aluminum
6%
Engineering
Shot Peening
64%
Induction Heating
47%
Grinding (Machining)
41%
Fatigue Strength
35%
Fatigue Property
35%
Modified Surface
27%
Ti-6al-4v Alloy
24%
Compressive Residual Stress
21%
Nitriding
20%
Corrosion Resistance
20%
Wear Resistance
17%
Microstructure
17%
Oxide Layer
16%
Bombardment
13%
Stainless Steel
12%
Dressing Process
12%
Residual Stress
12%
Metallic Biomaterials
12%
Mechanical Fatigue Test
11%
Low Cycle Fatigue
11%
Polycrystalline Diamond
11%
Residual Stress Relaxation
11%
Carbon Steel
10%
Fracture Mechanism
10%
Tensiles
10%
Scanning Electron Microscope
10%
Ground Surface
9%
Fatigue Life
9%
Pure Iron
9%
Particle Collision
8%
Surface Layer
8%
Energy Dispersive X-Ray Spectrometer
8%
Heating System
8%
Grinding Wheel
8%
Nanosecond
8%
Fits and Tolerances
8%
Diamond-Like Carbon
8%
Stress Relaxation
8%
Energy Engineering
8%
Adhesive Strength
6%
Oxide Film
6%
Pulsed Laser
6%
Cell Detachment
6%
Ray Stress Measurement
6%
Ray Diffraction
6%
Nodal Circle
6%
Quenching
6%
Diamond Tool
6%
Fatigue Crack
6%
Rotational
6%
Keyphrases
Fine Particle Peening
34%
Induction Heating
30%
Fatigue Properties
20%
Fatigue Strength
16%
Titanium Alloy
14%
Compressive Residual Stress
13%
Residual Stress Relaxation
11%
Hardened Layer
10%
Treated Surface
9%
Ti-6Al-4V Alloy
9%
FPP®
9%
Thermally-sprayed
8%
Nitrides
8%
Surface Treatment
8%
Induction Quenching
8%
Ni-based Self-fluxing Alloy
8%
Precision Grinding
8%
Co-Cr Alloy
8%
Austenitic Stainless Steel
6%
Carbon Steel
6%
Structural Steel
6%
Fracture Mode Transition
6%
Fatigue Fracture
6%
Residual Stress
6%
In-process Dressing
6%
In Situ X-ray
6%
Adhesion
6%
Peening
5%
Carburization
5%
Surface Modification
5%
High Speed Steel
5%
Martensite
5%
Diffusion Layer
5%
Surface Characteristics
5%
Fe-Al Intermetallic Compound
5%
Unidirectional CFRP
5%
Laser-induced
5%
Oxynitride
5%
Microtexture
5%
Rapid Induction
5%
Lens Mold
5%
Intermetallic Compound Layer
5%
Grinding System
5%
Self-fluxing Alloy
5%
Grinding Surface
5%
Grinding Characteristics
5%
L929 Fibroblasts
5%
Modifying Effect
5%
Polishing Mark
5%
Surface Modifying
5%
