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ReSSe crystals - High quality ReSSe 2D alloy crystals - 2Dsemiconductors USA ReSSe crystals - High quality ReSSe 2D alloy crystals - 2Dsemiconductors USA ReSSe Crystal ReSSe crystals - High quality ReSSe 2D alloy crystals - 2Dsemiconductors USA ReSSe crystals - High quality ReSSe 2D alloy crystals - 2Dsemiconductors USA

ReSSe Crystal

SKU: BLK-ReSSe
$590.00

Single crystal ReSxSe2(1-x) alloy rystals are developed at our facilities using chemical vapor transport or flux zone technique methods. Our ReSSe2 crystals display impressive structural anisotropy from bulk down to monolayers as evidenced by TEM and angle resolved Raman spectroscopy measurements (see XRD, TEM, Raman, PL, and other figures below). Crystals are perfectly layered, and ready for exfoliation. Our R&D team also provides you with transfer technique to boost your monolayer yield rate up to 95%. Alloys are 100% guaranteed to anisotropic and homogeneously alloyed (not phase separated).

Typical characteristics of ReSSe2 alloyed crystals from 2Dsemiconductors

resse-characteristics.png

Growth method matters> Flux zone or CVT growth method? Contamination of halides and point defects in layered crystals are well known cause for their reduced electronic mobility, reduced anisotropic response, poor e-h recombination, low-PL emission, and lower optical absorption. Flux zone technique is a halide free technique used for synthesizing truly semiconductor grade vdW crystals. This method distinguishes itself from chemical vapor transport (CVT) technique in the following regard: CVT is a quick (~2 weeks) growth method but exhibits poor crystalline quality and the defect concentration reaches to 1E11 to 1E12 cm-2 range. In contrast, flux method takes long (~3 months) growth time, but ensures slow crystallization for perfect atomic structuring, and impurity free crystal growth with defect concentration as low as 1E9 - 1E10 cm-2. During check out just state which type of growth process is preferred. Unless otherwise stated, 2Dsemiconductors ships Flux zone crystals as a default choice. 

XRD data collected from ReSSe2 alloyed crystals

resse-xrd.png

SIMS purity datasets collected from ReSSe2 crystals

resse-sims-purity.png

 HRTEM images collected from ReS2 crystals

 resse-hrtem.png

 
Partial List of Publications Using This Product

D. Wolverson et,al. "Rhenium Dichalcogenides: Layered Semiconductors with Two Vertical Orientations," Nano Letters 2016, 16, 1381−1386

Ignacio Gutiérrez-Lezama et. al. "Electroluminescence from indirect band gap semiconductor ReS2" 2D Materials, Volume 3, Number 4

Manish Chhowalla, "Two-dimensional semiconductors for transistors" Nature Reviews Materials 1, Article number: 16052 (2016) doi:10.1038/natrevmats.2016.52

Q. Cui et. al. "Coherent Control of Nanoscale Ballistic Currents in Transition Metal Dichalcogenide ReS2" ACS Nano 10.1021/acsnano.5b01111 (2015)

X-F. Qiao et.al. "Polytypism and unexpected strong interlayer coupling in two-dimensional layered ReS2" Nanoscale, 2016, 8, 8324 (2016)

D. Wolverson et.al. "Raman Spectra of Monolayer, Few-Layer, and Bulk ReSe2: An Anisotropic Layered Semiconductor" ACS Nano, 2014, 8 (11), pp 11154–11164

E. Lorchat et.al. "Splitting of Interlayer Shear Modes and Photon Energy Dependent Anisotropic Raman Response in N-Layer ReSe2 and ReS2" ACS Nano, 2016, 10 (2), pp 2752–2760

Full Description
Formula: ReSSe
Qty
  • Description

    ReSSe Crystal

    Single crystal ReSxSe2(1-x) alloy rystals are developed at our facilities using chemical vapor transport or flux zone technique methods. Our ReSSe2 crystals display impressive structural anisotropy from bulk down to monolayers as evidenced by TEM and angle resolved Raman spectroscopy measurements (see XRD, TEM, Raman, PL, and other figures below). Crystals are perfectly layered, and ready for exfoliation. Our R&D team also provides you with transfer technique to boost your monolayer yield rate up to 95%. Alloys are 100% guaranteed to anisotropic and homogeneously alloyed (not phase separated).

    Typical characteristics of ReSSe2 alloyed crystals from 2Dsemiconductors

    resse-characteristics.png

    Growth method matters> Flux zone or CVT growth method? Contamination of halides and point defects in layered crystals are well known cause for their reduced electronic mobility, reduced anisotropic response, poor e-h recombination, low-PL emission, and lower optical absorption. Flux zone technique is a halide free technique used for synthesizing truly semiconductor grade vdW crystals. This method distinguishes itself from chemical vapor transport (CVT) technique in the following regard: CVT is a quick (~2 weeks) growth method but exhibits poor crystalline quality and the defect concentration reaches to 1E11 to 1E12 cm-2 range. In contrast, flux method takes long (~3 months) growth time, but ensures slow crystallization for perfect atomic structuring, and impurity free crystal growth with defect concentration as low as 1E9 - 1E10 cm-2. During check out just state which type of growth process is preferred. Unless otherwise stated, 2Dsemiconductors ships Flux zone crystals as a default choice. 

    XRD data collected from ReSSe2 alloyed crystals

    resse-xrd.png

    SIMS purity datasets collected from ReSSe2 crystals

    resse-sims-purity.png

     HRTEM images collected from ReS2 crystals

     resse-hrtem.png

     
    Partial List of Publications Using This Product

    D. Wolverson et,al. "Rhenium Dichalcogenides: Layered Semiconductors with Two Vertical Orientations," Nano Letters 2016, 16, 1381−1386

    Ignacio Gutiérrez-Lezama et. al. "Electroluminescence from indirect band gap semiconductor ReS2" 2D Materials, Volume 3, Number 4

    Manish Chhowalla, "Two-dimensional semiconductors for transistors" Nature Reviews Materials 1, Article number: 16052 (2016) doi:10.1038/natrevmats.2016.52

    Q. Cui et. al. "Coherent Control of Nanoscale Ballistic Currents in Transition Metal Dichalcogenide ReS2" ACS Nano 10.1021/acsnano.5b01111 (2015)

    X-F. Qiao et.al. "Polytypism and unexpected strong interlayer coupling in two-dimensional layered ReS2" Nanoscale, 2016, 8, 8324 (2016)

    D. Wolverson et.al. "Raman Spectra of Monolayer, Few-Layer, and Bulk ReSe2: An Anisotropic Layered Semiconductor" ACS Nano, 2014, 8 (11), pp 11154–11164

    E. Lorchat et.al. "Splitting of Interlayer Shear Modes and Photon Energy Dependent Anisotropic Raman Response in N-Layer ReSe2 and ReS2" ACS Nano, 2016, 10 (2), pp 2752–2760

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