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europepmc
2018
置信度 0.80
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europepmc
2026
置信度 0.80
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europepmc
2026
置信度 0.80
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Diamond has been recognized as the ultimate semiconductor due to its ultra-wide bandgap, exceptional carrier mobility, high breakdown voltage, and superior thermal conductivity. However, its application in memristors is significantly limited by challenges in m…
pubmed
Sun G, Li X, Huang W, Han Y 等
2026
置信度 0.82
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europepmc
2026
置信度 0.80
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europepmc
2026
置信度 0.80
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europepmc
2026
置信度 0.80
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europepmc
2026
置信度 0.80
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europepmc
2026
置信度 0.80
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europepmc
2026
置信度 0.80
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europepmc
2026
置信度 0.80
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Silicon carbide (SiC), a third-generation wide-bandgap semiconductor, demonstrates prominent application advantages for extreme-environment sensing scenarios including deep-space exploration, nuclear reactor monitoring, and fusion device diagnosis, which benef…
pubmed
Liu Y, Deng Y, Zhang Q, Li H 等
2026
置信度 0.82
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europepmc
2026
置信度 0.80
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europepmc
2026
置信度 0.80
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europepmc
2026
置信度 0.80
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europepmc
2026
置信度 0.80
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europepmc
2026
置信度 0.80
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europepmc
2026
置信度 0.80
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The environmental residues and drug resistance resulting from antibiotic abuse urgently call for the development of efficient multicomponent detection technologies. Therefore, single-lanthanide metal-organic frameworks [Ln(BDPO)(H2O)4](H2O) (DMF): Ln = Eu, Tb,…
pubmed
Wang S, Sun B, Wang J, Hua J 等
2026
置信度 0.82
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europepmc
2026
置信度 0.80
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This review analyzes the transition from silicon to wide-bandgap (WBG) and ultrawide-bandgap (UWBG) semiconductor materials for power electronics, focusing on Silicon Carbide (SiC) and Gallium Nitride (GaN) technologies. Following a PRISMA-based systematic rev…
europepmc
Giuseppe Galioto, Gianpaolo Vitale, Antonino Sferlazza, Giuseppe Lullo 等
2026
置信度 0.80
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europepmc
2026
置信度 0.80
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europepmc
2026
置信度 0.80
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europepmc
2026
置信度 0.80
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Abstract Aluminum nitride (AlN) has attracted increasing interest as an optoelectronic material in the deep ultraviolet spectral range due to its wide bandgap of 6.0 eV (207 nm wavelength) at room temperature. Because AlN bulk single crystals are ideal device …
europepmc
PeiTsen Wu, Mitsuru Funato, Yoichi Kawakami
2015
置信度 0.80
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europepmc
2026
置信度 0.80
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europepmc
2026
置信度 0.80
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europepmc
2026
置信度 0.80
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europepmc
2026
置信度 0.80
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europepmc
2026
置信度 0.80
-
Silicon (Si), the cornerstone semiconductor in the micro-electronics industry, can provide a cost-efficient platform with mature technologies for photodetection in visible and near-infrared regions. However, its intrinsic properties, such as a narrow bandgap a…
pubmed
Kamal A, Hong S, Ju H
2025
置信度 0.82
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europepmc
2026
置信度 0.80
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europepmc
2026
置信度 0.80
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europepmc
2026
置信度 0.80
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Industries such as the automotive, aerospace or military, as well as environmental and biological research have promoted the development of ultraviolet (UV) photodetectors capable of operating at high temperatures and in hostile environments. UV-enhanced Si ph…
openalex
E. Monroy, F Omn s, F. Calle, E Monroy 等
2003-03-04
置信度 0.72
PhotodetectorUltravioletOptoelectronicsSemiconductorMaterials science
-
The fact that wide bandgap semiconductors are capable of electronic functionality at much higher temperatures than silicon has partially fueled their development, particularly in the case of SiC. It appears unlikely that wide bandgap semiconductor devices will…
openalex
Philip G. Neudeck, Robert S. Okojie, Liang-Yü Chen
2002-06-01
置信度 0.72
Materials scienceSemiconductorSiliconSilicon bandgap temperature sensorEngineering physics
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openalex
Jeff B. Casady, Wayne Johnson
1996-10-01
置信度 0.72
Silicon carbideMaterials scienceSilicon bandgap temperature sensorOptoelectronicsSemiconductor
-
openalex
Ziqing Li, Tingting Yan, Xiaosheng Fang
2023-08-18
置信度 0.72
PhotodetectorElectronicsSemiconductorOptoelectronicsMaterials science
-
An advantage for some wide bandgap materials, that is often overlooked, is that the thermal coefficient of expansion (CTE) is better matched to the ceramics in use for packaging technology. It is shown that the optimal choice for uni-polar devices is clearly G…
openalex
J.L. Hudgins, G. Simin, Enrico Santi, M.A. Khan
2003-05-01
置信度 0.72
Materials scienceOptoelectronicsBand gapWide-bandgap semiconductorSemiconductor
-
Wide-bandgap semiconductors are expected to be applied to solid-state lighting and power devices, supporting a future energy-saving society. While GaN-based white LEDs have rapidly become widespread in the lighting industry, SiC- and GaN-based power devices ha…
openalex
Shizυo Fujita, Shizuo Fujita
2015-02-04
置信度 0.72
SemiconductorBand gapLight-emitting diodeMaterials scienceWide-bandgap semiconductor
-
The manipulation of the bandgap of graphene by various means has stirred great interest for potential applications. Here we show that treatment of graphene with xenon difluoride produces a partially fluorinated graphene (fluorographene) with covalent C-F bondi…
europepmc
Ki‐Joon Jeon, Zonghoon Lee, Elad Pollak, Luca Moreschini 等
2011
置信度 0.80
GrapheneMaterials sciencePhotoluminescenceBand gapSpectroscopy
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Given a matrix of all semiconductor materials and their properties, the highest and the lowest of these property values will almost always be associated with wide bandgap materials. The many possible combinations of these "poles and zeros" lead not only to sup…
openalex
Max N. Yoder, M.N. Yoder
1996-01-01
置信度 0.72
SemiconductorWide-bandgap semiconductorBand gapSemiconductor deviceMaterials science
-
We report the synthesis and evidence of graphene fluoride, a two-dimensional wide bandgap semiconductor derived from graphene. Graphene fluoride exhibits hexagonal crystalline order and strongly insulating behavior with resistance exceeding $10\text{ }\text{G}…
openalex
Shi‐Bo Cheng, Ke Zou, Fujio Okino, Humberto R. Gutiérrez 等
2010-05-25
置信度 0.72
GrapheneSemiconductorBand gapMaterials scienceCondensed matter physics
-
openalex
Kiyoshi Takahashi, Akihiko Yoshikawa, Adarsh Sandhu
2007-03-01
置信度 0.72
SemiconductorMaterials scienceBand gapPhotonicsOptoelectronics
-
openalex
S. J. Pearton, F. Ren, Yu‐Lin Wang, B. H. Chu 等
2009-09-04
置信度 0.72
Materials scienceSemiconductorNanotechnologyBand gapOptoelectronics
-
Abstract Wide‐bandgap (WBG) semiconductors are essential materials for making short‐wavelength and transparent optoelectronic devices. However, a serious obstacle to realizing WBG semiconductor‐based devices is their common doping asymmetry problem, i.e., a WB…
openalex
Yanfa Yan, Su‐Huai Wei
2008-02-01
置信度 0.72
DopingSemiconductorAsymmetryMaterials scienceWide-bandgap semiconductor
-
Recent developmental advances have allowed silicon (Si) semiconductor technology to approach the theoretical limits of the Si material; however, power device requirements for many applications are at a point that the present Si-based power devices cannot handl…
openalex
Burak Ozpineci, B. Ozpineci
2004-01-02
置信度 0.72
SemiconductorSilicon carbideWide-bandgap semiconductorMaterials scienceGallium nitride
-
Wide bandgap (WBG) devices offer the advantages of high frequency, high efficiency, and high power density to power converters due to their excellent performance. However, their low parasitic capacitance and fast switching speed also make them more susceptible…
openalex
Jian Chen, Xiong Du, Quanming Luo, Xinyue Zhang 等
2020-05-19
置信度 0.72
TransistorCascodeGallium nitrideMaterials scienceConverters
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openalex
Hiroki Mashiko, Katsuya Oguri, Tomohiko Yamaguchi, Akira Suda 等
2016-04-11
置信度 0.72
PhysicsSemiconductorAttosecondOptoelectronicsGallium nitride
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openalex
P. Das, D. K. Ferry
1976-10-01
置信度 0.72
Condensed matter physicsSemiconductorMicrowaveConductivityDielectric
-
ADVERTISEMENT RETURN TO ISSUEPREVArticleNEXTQuantum-Sized PbS, CdS, Ag2S, Sb2S3, and Bi2S3 Particles as Sensitizers for Various Nanoporous Wide-Bandgap SemiconductorsR. VogelR. VogelMore by R. Vogel, P. HoyerP. HoyerMore by P. Hoyer, and H. WellerH. WellerMore…
openalex
R. Vogel, Patrick Hoyer, Horst Weller
1994-03-01
置信度 0.72
NanoporousAltmetricsCitationSocial mediaIcon
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The wide bandgap semiconductors SiC and GaN are already commercialized as power devices that are used in the automotive, wireless, and industrial power markets, but their adoption into space and avionic applications is hindered by their susceptibility to perma…
openalex
S. J. Pearton, Assel Aitkaliyeva, Minghan Xian, F. Ren 等
2021-04-27
置信度 0.72
Materials scienceOptoelectronicsRadiation hardeningTransistorSemiconductor
-
Ultraviolet (UV) light, invisible to the human eye, possesses both benefits and risks. To harness its potential, UV photodetectors (PDs) have been engineered. These devices can convert UV photons into detectable signals, such as electrical impulses or visible …
europepmc
Fa Cao, Ying Liu, Mei Liu, Zeyao Han 等
2024
置信度 0.80
PhotodetectorUltravioletMaterials scienceOptoelectronicsSemiconductor
-
The expansion of the electric vehicle market is driving the request for efficient and reliable power electronic systems for electric energy conversion and processing. The efficiency, size, and cost of a power system is strongly related to the performance of po…
openalex
Giuseppe Iannaccone, Christian Sbrana, Iacopo Morelli, Sebastiano Strangio
2021-01-01
置信度 0.72
Silicon carbideGallium nitrideWide-bandgap semiconductorPower electronicsSemiconductor
-
Wide-bandgap semiconductors possess much larger energy bandgaps in comparison to traditional semiconductors such as silicon, rendering them very promising for applications in the fields of electronics and optoelectronics. Prominent examples of semiconductors i…
openalex
Saravanan Yuvaraja, Vishal Khandelwal, Xiao Tang, Xiaohang Li
2023-10-14
置信度 0.72
Materials scienceOptoelectronicsSemiconductorTransistorElectronic circuit
-
The technological and societal impacts of electronic devices based on Ge, Si, and compound semiconductors like GaAs have been profound, fueling the decades long quest in identifying ever-larger bandgap semiconductors to untap new applications and possibilities…
openalex
Joel B. Varley, Bo Shen, Masataka Higashiwaki
2022-06-17
置信度 0.72
Wide-bandgap semiconductorBand gapSemiconductorMaterials scienceOptoelectronics
-
The exact definition of wide bandgap semiconductors versus conventional semiconductors is rather ambiguous. A variety of different semiconductors have been discussed in the present symposium, but the major emphasis, of course dictated by the participant respon…
openalex
Jeffrey T. Glass, R. Messier, Naoji Fujimori
1990-01-01
置信度 0.72
DiamondSilicon carbideSemiconductorEngineering physicsNanotechnology
-
Explores the RF power performance of microwave amplifiers fabricated from wide bandgap semiconductor transistors and demonstrates that microwave power amplifiers fabricated from 4H-SiC and AlGaN/GaN transistors offer superior RF power performance, particularly…
openalex
R.J. Trew
2000-03-01
置信度 0.72
AmplifierMaterials scienceRF power amplifierTransistorMicrowave
-
openalex
Mariana Amorim Fraga, Humber Furlan, Rodrigo Sávio Pessoa, M. Massi
2013-12-13
置信度 0.72
Materials sciencePiezoresistive effectWide-bandgap semiconductorMicroelectromechanical systemsSilicon carbide
-
Wide bandgap oxide semiconductors constitute a unique class of materials that combine properties of electrical conductivity and optical transparency. They are being widely used as key materials in optoelectronic device applications, including flat-panel displa…
openalex
Jueli Shi, Jiaye Zhang, Yang Lu, Mei Qu 等
2021-04-01
置信度 0.72
Materials scienceSemiconductorNanotechnologyThin-film transistorOptoelectronics
-
In this paper the potentiality of impact avalanche transit time (IMPATT) devices based on different semiconductor materials such as GaAs, Si, InP, 4H-SiC and Wurtzite-GaN (Wz-GaN) has been explored for operation at terahertz frequencies. Drift–diffusion model …
openalex
Aritra Acharyya, J. P. Banerjee
2012-11-15
置信度 0.72
Terahertz radiationOptoelectronicsMaterials scienceWurtzite crystal structureSemiconductor
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This paper presents a critical evaluation of the performance capabilities of various wide bandgap semiconductors for high power and high frequency unipolar electronic devices. Seven different figures of merit have been analyzed. Theoretical calculations show t…
openalex
T. Paul Chow, R. Tyagi
1994-01-01
置信度 0.72
Band gapMaterials scienceSemiconductorWide-bandgap semiconductorCompound semiconductor
-
openalex
A. BenMoussa, A. Soltani, U. Schühle, Ken Haenen 等
2008-11-28
置信度 0.72
PhotodetectorOptoelectronicsMaterials scienceDiamondResponsivity
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openalex
Albert A. Burk, Michael O’Loughlin, R.R. Siergiej, Anant Agarwal 等
1999-08-01
置信度 0.72
Materials scienceWide-bandgap semiconductorSemiconductorOptoelectronicsBand gap
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The optoelectronic performance of wide-bandgap semiconductors often cannot compete with that of their defect-tolerant small-bandgap counterpart. Here, the authors outline three main challenges to overcome for mitigating the impact of defects in wide-bandg…
openalex
Alex M. Ganose, David O. Scanlon, Aron Walsh, Robert L. Z. Hoye
2022-08-11
置信度 0.72
Band gapSemiconductorPhotovoltaicsWide-bandgap semiconductorMaterials science
-
Wide bandgap semiconductor ZnO, GaN and InN nanowires have displayed the ability to detect many types of gases and biological and chemical species of interest. In this review, we give some recent examples of using these nanowires for applications in pH sensing…
openalex
S. J. Pearton, F. Ren, Stephen J. Pearton, Fan Ren
2013-01-01
置信度 0.72
NanosensorNanoelectronicsMaterials scienceNanowireNanotechnology
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openalex
Akihiko Yoshikawa, Hiroyuki Matsunami, Yasushi Nanishi
2007-01-01
置信度 0.72
SemiconductorMaterials scienceOptoelectronicsBand gapEngineering physics
-
openalex
Asier Matallana, Edorta Ibarra, I. López, Jon Andreu 等
2019-08-02
置信度 0.72
ElectronicsPower electronicsSemiconductorBand gapEngineering physics
-
openalex
Paul R. Chalker
1999-04-01
置信度 0.72
SemiconductorMaterials scienceBand gapOptoelectronicsWide-bandgap semiconductor
-
openalex
S. J. Pearton, C. R. Abernathy, D. P. Norton, A. F. Hebard 等
2003-02-01
置信度 0.72
SpintronicsMagnetic semiconductorMaterials scienceSemiconductorOptoelectronics
-
Wide bandgap semiconductors enable high voltage (10 kV and more) switches. As a consequence, new packaging solutions are required to prepare the ground for such devices. The metallized ceramic substrate is a well-known and established technology for voltages u…
openalex
Hugo Reynes, Cyril Buttay, Hervé Morel, Herve Morel
2017-10-01
置信度 0.72
Materials scienceCeramicSubstrate (aquarium)OptoelectronicsSemiconductor
-
openalex
Yuhao Zhang, Dong Dong, Qiang Li, Richard Zhang 等
2025-01-21
置信度 0.72
SemiconductorBand gapPower electronicsMaterials scienceWide-bandgap semiconductor
-
openalex
Christophe Raynaud, Dominique Tournier, Hervé Morel, Dominique Planson
2009-10-05
置信度 0.72
Materials scienceDiamondOptoelectronicsSemiconductorPower semiconductor device
-
Fundamental limitations of wide-bandgap semiconductor devices are caused by systematic trends of the electron and hole effective mass, dopant ionization energy, and carrier drift mobility as the semiconductor’s bandgap energy increases. We show that when trans…
openalex
Jun Hyuk Park, Dong Yeong Kim, E. Fred Schubert, Jaehee Cho 等
2018-02-13
置信度 0.72
OptoelectronicsBand gapLight-emitting diodeMaterials scienceSemiconductor
-
Wide-bandgap semiconductors such as GaN∕AlGaN and ZnO∕MgZnO quantum wells are promising for improving the spectral reach and high-temperature performance of terahertz quantum cascade lasers, due to their characteristically large optical phonon energies. Here, …
openalex
E. Bellotti, Kristina Driscoll, T. D. Moustakas, Roberto Paiella
2009-06-01
置信度 0.72
Terahertz radiationOptoelectronicsQuantum wellCascadeMaterials science
-
openalex
Guillaume Cassabois, Pierre Valvin, Bernard Gil
2016-01-25
置信度 0.72
Band gapMaterials scienceSemiconductorExcitonWide-bandgap semiconductor
-
openalex
John L. Lyons, Darshana Wickramaratne, Anderson Janotti
2024-04-08
置信度 0.72
SemiconductorMaterials scienceBand gapDiamondDopant
-
Atom probe tomography allows for three-dimensional reconstruction of the elemental distribution in materials at the nanoscale. However, the measurement of the chemical composition of compound semiconductors may exhibit strong biases depending on the experiment…
openalex
Lorenzo Mancini, Nooshin Amirifar, Deodatta Shinde, Ivan Blum 等
2014-09-19
置信度 0.72
Atom probeMaterials scienceTernary operationSemiconductorElectric field
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openalex
Dmitry A. Fishman, Claudiu M. Cirloganu, Scott Webster, Lázaro A. Padilha 等
2011-08-05
置信度 0.72
Absorption (acoustics)SemiconductorBand gapOptoelectronicsPhoton
-
Structural properties of GaN and ZnO layers doped with magnetic impurities were investigated by Raman scattering. Long-range lattice ordering and local atomic arrangement around magnetic impurities were analysed, and their solubility limit was considered. For …
openalex
Hisatomo Harima
2004-11-20
置信度 0.72
SpintronicsImpurityRaman scatteringMaterials scienceRaman spectroscopy
-
openalex
James Grant, W. R. Cunningham, A. Blue, V. OʼShea 等
2005-04-09
置信度 0.72
Materials scienceOptoelectronicsSilicon carbideGallium nitrideIrradiation
-
Wide bandgap semiconductors,such as silicon carbide(SiC) and gallium nitride(GaN),are considered to be excellent candidates for high power,high frequency and high temperature applications in the commercial and military power distribution and conversion systems…
openalex
2021-10-29
置信度 0.72
SemiconductorPower electronicsBand gapElectronicsEngineering physics
-
We review the vertical and lateral SiC and GaN power transistor types and structures explored and commercialized for advanced energy efficient systems. We have quantitatively evaluated the on-state performance of these power devices in the voltage rating range…
openalex
T. Paul Chow
2015-11-01
置信度 0.72
Power semiconductor deviceTransistorPower (physics)VoltageElectrical engineering
-
Silicon (Si)-based semiconductor devices have long dominated the power electronics industry and are used in almost every application involving power conversion. Examples of these include metal-oxide-semiconductor field-effect transistors (MOSFETs), insulated-g…
openalex
Omar Sarwar Chaudhary, Mouloud Denaï, Shady S. Refaat, Georgios Pissanidis
2023-09-18
置信度 0.72
Power semiconductor devicePower electronicsPower moduleElectrical engineeringMaterials science
-
Wide bandgap semiconductors are electronic materials in which the energy of the band-to-band electronic transitions exceeds approximately 2 eV. These materials have different kinds of chemical bonds and of crystal lattice structures, but the electronic and opt…
openalex
В.С. Вавилов
1994-03-31
置信度 0.72
SemiconductorBand gapWide-bandgap semiconductorMaterials scienceSilicon carbide
-
openalex
Jijun Ding, Pengfei Zhao, Haixia Chen, Haiwei Fu
2024-04-29
置信度 0.72
Materials scienceOptoelectronicsUltravioletBand gapPhotodetector
-
High power densities of 5.2 W/mm and 63% power added efficiency (PAE) have been demonstrated for SiC MESFETs at 3.5 GHz. Wide bandwidth MMICs have also been demonstrated with SiC MESFETs, yielding 37 W at 3.5 GHz. Even higher power densities have been obtained…
openalex
John W. Palmour, S.T. Sheppard, R.P. Smith, Scott T. Allen 等
2002-11-13
置信度 0.72
Materials scienceMonolithic microwave integrated circuitAmplifierOptoelectronicsWide-bandgap semiconductor
-
Deep-level defects are usually considered undesirable in semiconductors as they typically interfere with the performance of present-day electronic and optoelectronic devices. However, the electronic spin states of certain atomic-scale defects have recently bee…
openalex
F. Joseph Heremans, Christopher G. Yale, D. D. Awschalom
2016-05-24
置信度 0.72
Quantum sensorDynamical decouplingQuantum technologyQuantum entanglementQuantum computer
-
The evolution of power and radiofrequency electronics enters a new era with (ultra)wide bandgap semiconductors such as GaN, SiC, and β-Ga2O3, driving significant advancements across various technologies. The elevated breakdown voltage and minimal on-resistance…
openalex
Zhe Cheng, Zifeng Huang, Jinchi Sun, Jia Wang 等
2024-11-25
置信度 0.72
SemiconductorHeterojunctionMaterials scienceOptoelectronicsBand gap
-
Abstract The aspiration of electronic technologies that are resistant to high‐energy cosmic radiation is essential for current harsh radiation environment exploration. Integrated circuits mostly require post‐processing after designing, making their structures …
openalex
Zahir Muhammad, Yan Wang, Yue Zhang, Pierre Vallobra 等
2022-09-30
置信度 0.72
ElectronicsBand gapMaterials scienceRadiation hardeningSemiconductor
-
Transparent electronics is today one of the most advanced topics for a wide range of device applications. The key components are wide bandgap semiconductors, where oxides of different origins play an important role, not only as passive component but also as ac…
openalex
Elvira Fortunato, Pedro Barquinha, Rodrigo Martins
2012-05-10
置信度 0.72
Thin-film transistorMaterials scienceElectronicsNanotechnologyOxide thin-film transistor
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Currently, the demand by new application scenarios of increasing operating device temperatures in power systems is requiring new die-attach materials with higher melting points and suitable thermomechanical properties. This makes the die-attach material select…
openalex
Luis A. Navarro, X. Perpiñà, Philippe Godignon, J. Montserrat 等
2013-08-23
置信度 0.72
Die (integrated circuit)Materials scienceSinteringTemperature cyclingComposite material
-
Polynuclear metal complexes, supporting efficient intramolecular energy transfer processes, can be used to increase the light harvesting efficiency of sensitized wide bandgap semiconductors. Experimental studies are discussed to emphasize: (i) how structural c…
openalex
Carlo Alberto Bignozzi, Roberto Argazzi, Jon R. Schoonover, Gerald J. Meyer 等
1995-01-01
置信度 0.72
SemiconductorAntenna effectBand gapAntenna (radio)Intramolecular force
-
18 monolayer metals have superior oxidation resistance, wide bandgap, high carrier mobility and notable absorption in the ultraviolet region.
openalex
Yu Guo, Liang Ma, Keke Mao, Ming‐Gang Ju 等
2018-12-20
置信度 0.72
MonolayerMaterials scienceBand gapSemiconductorMetal
-
Abstract Ultrawide‐bandgap (UWBG) semiconductors, with bandgaps significantly wider than the 3.4 eV of GaN, represent an exciting and challenging new area of research in semiconductor materials, physics, devices, and applications. Because many figures‐of‐merit…
openalex
J. Y. Tsao, Srabanti Chowdhury, M.A. Hollis, Debdeep Jena 等
2017-12-04
置信度 0.72
SemiconductorMaterials scienceBand gapOptoelectronicsEngineering physics
-
openalex
Keran Jiang, Peilei Zhang, Shijie Song, Tianzhu Sun 等
2024-05-27
置信度 0.72
Materials scienceOptoelectronicsSemiconductorWide-bandgap semiconductorSurface micromachining
-
openalex
Ichiro Yonenaga
2001-12-01
置信度 0.72
Materials scienceWide-bandgap semiconductorDislocationAtmospheric temperature rangeIndentation
-
europepmc
2026
置信度 0.80
-
europepmc
2026
置信度 0.80
-
europepmc
2026
置信度 0.80