Molybdenum Diselenide
Molybdenum Diselenide - Related Videos
08:15
Temperature-programmed Deoxygenation of Acetic Acid on Molybdenum Carbide Catalysts
0 Views •
Cited by 1 •
2017
Presented here is a protocol for the operation of a micro-scale temperature-programmed reactor for evaluating the catalytic performance of molybdenum carbide during acetic acid deoxygenation.
09:41
Using Laser Scanning Microscopy to Determine Electromigration in Molybdenum Disilicide
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2025
Here, we describe a workflow using laser scanning microscopy to determine the volume electromigrated through a metal line under test. By varying different experimental variables, a multitude of information about electromigration can be acquired. In this work, the length of the onset of electromigration is determined.
08:12
Ohmic Contact Fabrication Using a Focused-ion Beam Technique and Electrical Characterization for Layer Semiconductor Nanostructures
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Cited by 10 •
2015
We describe the approaches for the device fabrication and electrical characterization of molybdenum diselenide (MoSe2) layer semiconductor nanostructures with different thicknesses. In addition, the fabrication of ohmic contacts for MoSe2-layer nanocrystals by the focused-ion beam deposition method using platinum (Pt) as a contact metal is described.
09:46
Construction and Evaluation of a Murine Calvarial Osteolysis Model by Exposure to CoCrMo Particles in Aseptic Loosening
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Cited by 9 •
2018
This manuscript describes a murine calvarial osteolysis model by exposure to CoCrMo particles, which constitutes an ideal animal model for assessing the interactions between wear particles and various cells in aseptic loosening.
14:01
Making Record-efficiency SnS Solar Cells by Thermal Evaporation and Atomic Layer Deposition
0 Views •
Cited by 30 •
2015
Tin sulfide (SnS) is a candidate material for Earth-abundant, non-toxic solar cells. Here, we demonstrate the fabrication procedure of the SnS solar cells employing atomic layer deposition, which yields 4.36% certified power conversion efficiency, and thermal evaporation which yields 3.88%.
FAQs
Thickness reduction can change the band structure of Molybdenum Diselenide. In the monolayer form, the material can exhibit a direct band gap rather than the thickness-dependent behavior found in thicker stacks. This transition strengthens its relevance for engineered optoelectronic components, because electronic and optical responses can be adjusted through layer number.
Weak van der Waals forces connect neighboring layers, allowing them to be separated without disrupting the atomic structure within each sheet. Mechanical or liquid exfoliation can therefore produce ultrathin layers. This capability lets researchers examine how reduced thickness changes electronic properties and supports the development of nanoscale material platforms.
Strong light-matter interactions in ultrathin Molybdenum Diselenide support efficient generation of electrical charge and excitons, which are generated light-associated states. These responses connect the material's optical behavior with device function. As a result, MoSe2 is relevant to photodetectors and other nanoscale systems that rely on interactions between incoming light and semiconductor material.
Researchers can use mechanical exfoliation or liquid exfoliation to separate layers of Molybdenum Diselenide. Both approaches take advantage of the weak van der Waals forces between adjacent sheets. Producing ultrathin material is important because the resulting layer thickness can alter electronic behavior, including the band structure associated with monolayer samples.
The thickness-dependent properties of MoSe2 support research on field-effect transistors, photodetectors, sensors, and flexible electronics. Its electronic response is linked to layer number, while its light-matter interactions support optical and charge-generation functions. These combined characteristics make the material useful for investigating different device architectures rather than a single application.
Molybdenum Diselenide gives materials engineers a two-dimensional semiconductor whose behavior can be examined through its layer thickness and atomic composition. Its exfoliation into ultrathin sheets, thickness-sensitive band structure, and light-driven charge and exciton generation provide several design variables. These features support engineering research on flexible, sensing, electronic, and optoelectronic devices.