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Scopus著者プロファイル
野田 啓
電気情報工学科
ウェブサイト
https://k-ris.keio.ac.jp/html/100011350_ja.html
747
被引用数
出典: Scopus
14
h-index
Pureの文献数とScopusの被引用数に基づいて算出されます
1999
2022
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
(63)
類似のプロファイル
(6)
Pureに変更を加えた場合、すぐここに表示されます。
フィンガープリント
Kei Noda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
Engineering & Materials Science
Annealing
13%
Buffer layers
32%
Butyric acid
15%
Carrier concentration
13%
Conjugated polymers
12%
Contact resistance
20%
Copolymers
16%
Decomposition
15%
Dimers
17%
Doping (additives)
37%
Electric potential
16%
Electrodes
32%
Electrons
18%
Fabrication
19%
Ferroelectric materials
53%
Field emission
12%
Fullerenes
18%
Gases
14%
Gates (transistor)
16%
Gold
15%
Graphene nanoribbon
18%
Hall effect
15%
Hole mobility
14%
Hydrogen
15%
Hydrogen production
32%
Methanol
39%
Microscopic examination
18%
Molecules
22%
Monolayers
20%
Nanotubes
44%
Oligomers
47%
Organic field effect transistors
29%
Organic semiconductor materials
15%
Oxygen
14%
Palladium
19%
Parameter extraction
14%
Partial pressure
12%
Photocatalysis
17%
Polymers
34%
Polymethyl methacrylates
30%
Self assembled monolayers
15%
Substrates
16%
Thermionic emission
17%
Thin film transistors
100%
Thin films
57%
Thiophene
23%
Titanium dioxide
16%
Transistors
23%
Vacancies
15%
Vacuum
34%
Physics & Astronomy
acids
9%
alkali halides
13%
atomic force microscopy
12%
buffers
14%
butyric acid
9%
composite materials
11%
contact resistance
13%
decomposition
25%
dimers
10%
electric contacts
11%
electric potential
15%
electrodes
25%
electrons
10%
fabrication
16%
field effect transistors
10%
field emission
9%
fluorides
41%
formaldehyde
11%
fullerenes
12%
gas reactors
9%
gold
9%
graphene
9%
high vacuum
38%
hydrogen
16%
hydrogen production
47%
illumination
12%
mass spectrometers
10%
membranes
12%
methyl alcohol
45%
microscopy
16%
molecules
12%
nanotubes
49%
oligomers
48%
oxygen
10%
palladium
17%
partial pressure
10%
polymers
27%
polymethyl methacrylate
18%
probes
15%
purity
9%
thermionic emission
12%
thin films
77%
thiophenes
20%
titanium
12%
titanium oxides
21%
transistors
73%
traps
13%
vapor phases
24%
vinylidene
46%
water
11%
Chemical Compounds
Alternating Copolymer
7%
Behavior as Electrode
9%
Benzimidazole
6%
Bilayer Membrane
13%
Buffer Solution
15%
Composite Material
6%
Compound Mobility
9%
Copper Oxide
6%
Decomposition
11%
Doping Material
10%
Electrical Property
6%
Electron Particle
7%
Electron Trap
8%
Ferroelectric Film
9%
Field Effect
22%
Field Emission
6%
Gas
6%
Hall Effect
8%
Hole Mobility
12%
Hydrogen
6%
Illumination
12%
Kelvin Probe Force Microscopy
16%
Liquid Film
23%
Methanol
20%
Molecular Crystal
7%
Molecule
8%
Monolayer
12%
Multilayer
10%
Nanotube
18%
Non-Contact AFM
10%
Nonconductor
15%
Oligomer
13%
Palladium
11%
Partial Pressure
6%
Pentacene
23%
Photocatalytic Oxidation
7%
Photoconductivity
7%
Reflectivity
8%
Resistance
6%
Schottky Barrier
13%
Schottky Contact
21%
Self Assembled Monolayer
9%
Semiconductor
7%
Simulation
8%
Surface
8%
Terephthalic Acid
6%
Ultraviolet Irradiation
6%
Vacuum
27%
Vinylidene Fluoride
21%
Voltage
10%
