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Scopus著者プロファイル
長柄 毅一
教授, 博士（工学） 大阪大学 2003年5月
芸術文化学科
h-index
565
被引用数
13
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
1999
2023
年別の研究成果
概要
フィンガープリント
ネットワーク
プロジェクト
(12)
研究成果
(22)
コース
(2)
類似のプロファイル
(5)
フィンガープリント
Takekazu Nagae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
Keyphrases
Pulse Current Pressure Sintering
72%
Sintering Process
63%
Mechanical Properties
44%
Mechanical Alloying
43%
Spark Plasma Sintering
41%
Pulse Current
25%
Pressureless Sintering
25%
Sintered Compacts
23%
Mixed Powder
22%
Aluminum Alloy Powder
22%
DC Reactive Magnetron Sputtering
18%
Molybdenum Alloy
16%
Sintered Molybdenum
16%
Facing Targets Sputtering System
16%
Aluminum Oxide
16%
TiN Film
16%
Surface Modification
16%
Microstructure
16%
Reactive Sputtering
16%
Base Metals
15%
Hexagonal Boron Nitride (h-BN)
14%
Spark Plasma Sintering Technique
14%
Bronze Mirror
14%
Alloy Powder
14%
High Hardness
14%
Nb3Al
13%
Functionally Graded Materials
13%
Room Temperature
13%
Intermetallic Compounds
13%
Total Gas Pressure
13%
Dispersed Particles
13%
Hollow
12%
Ancient Bronze
12%
Annealing
12%
Vickers Hardness
11%
Oxide Layer
11%
Composite Ceramics
11%
TiN Thin Films
11%
Colorimetric Properties
11%
Al-High Si Alloys
11%
Aluminum Powder
11%
Composite Powder
11%
Mo Alloys
11%
Electron Beam
11%
Microorganisms
11%
CrAlN Film
11%
Pulsed DC
11%
Al-Al2O3
11%
Ar Gas
11%
Al Powder
10%
Material Science
Sintering
100%
Film
51%
Mechanical Alloying
48%
Spark Plasma Sintering
46%
Thin Films
25%
Density
23%
Aluminum Alloy
21%
Scanning Electron Microscopy
21%
Aluminum
19%
Surface (Surface Science)
17%
Intermetallics
16%
Phase Composition
16%
Oxide Compound
16%
Molybdenum Alloys
16%
X-Ray Diffraction
15%
Vickers Hardness
14%
Ultimate Tensile Strength
13%
Grain Size
13%
Nitride Compound
12%
Al2O3
11%
Electrical Resistivity
11%
Ceramic Composite
11%
Boron Nitride
11%
Surface Treatment
11%
Functionally Graded Material
10%
Thermal Expansion
9%
Molybdenum
8%
Tensile Property
8%
X Ray Diffraction Analysis
8%
Magnetic Property
8%
Hot Isostatic Pressing
7%
Stainless Steel
7%
Zirconia
7%
Silicon
6%
Solid Solutions
6%
Carbide
6%
Magnesium Alloys
6%
Volume Fraction
5%
Oxidation Reaction
5%
Physical Vapor Deposition
5%
Amorphous Carbon
5%
Die Casting
5%
Transition Metal Carbide
5%
Ductile-to-Brittle Transition
5%
Transition Metal
5%
Nanocomposite Coating
5%
Crystal Orientation
5%
Fracture Behavior
5%
Zirconium
5%
Cobalt
5%
Engineering
Sintering
79%
Current Pulse
65%
Sintering Process
42%
Reactive Sputtering
27%
Spark Plasma Sintering
26%
Mechanical Alloying
25%
Phase Composition
24%
Al Alloy
20%
Thin Films
19%
Base Metal
13%
Vickers
13%
Nitride
12%
Ultimate Tensile Strength
11%
Aluminum Powder
11%
Oxide Layer
11%
Gas Pressure
11%
Room Temperature
11%
Beam Irradiation
11%
Functionally Graded Material
11%
Al Powder
9%
Deposited Film
8%
Nanocomposite
8%
Scanning Speed
8%
Accelerating Voltage
8%
Intermetallics
7%
Core Material
7%
Internal Stress
7%
Solid Solutions
6%
Coefficient of Friction
6%
Friction Coefficient
6%
Japan
6%
Near Net Shape
6%
Stainless Steel
6%
Magnetron
6%
Indentation
5%
Physical Vapor Deposition
5%
Die Casting
5%
near Net Shape Forming
5%
Pressure Die
5%
Gas Flowrate
5%
Joints (Structural Components)
5%
Automotive Component
5%
Discharge Pressure
5%
Pulse Frequency
5%
Fracture Mechanism
5%
Pulse Duration
5%
Base Alloy
5%
Production Technique
5%
Interlayer
5%
Strengthening Mechanism
5%
