| Markenbezeichnung: | ZMSH |
| MOQ: | 10 |
| Lieferzeit: | 2-4 Wochen |
| Zahlungsbedingungen: | T/T |
Device-Grade hBN Single Crystal for 2D Materials, Graphene Electronics and Deep-UV Applications
Device-Grade Hexagonal Boron Nitride (hBN) Single Crystal is a high-purity bulk crystal material grown using a proprietary atmospheric-pressure growth process. Designed specifically for advanced research and next-generation electronic and photonic devices, these crystals provide an ultra-clean, atomically flat platform for graphene heterostructures, van der Waals devices, nanophotonics, and deep ultraviolet optoelectronics.
The material exhibits exceptional crystal quality, low defect density, excellent dielectric strength, and outstanding optical properties. Independent third-party validation has demonstrated electronic device performance comparable to or exceeding the current academic benchmark established by leading hBN crystal producers.
Available as millimeter-scale bulk crystals with natural growth facets, Device-Grade hBN Single Crystal is an ideal substrate and encapsulation material for high-mobility graphene devices and emerging two-dimensional material systems.
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| Parameter | Specification |
|---|---|
| Material | Hexagonal Boron Nitride (hBN) Single Crystal |
| Crystal Grade | Device Grade |
| Crystal Form | Bulk Single Crystal |
| Growth Method | Proprietary Atmospheric-Pressure Growth |
| Typical Lateral Size | ≥ 1 mm |
| Crystal Surface | Natural Growth Facets |
| Packaging | Chip Carrier |
| Quantity per Package | 5–10 Crystals |
| Parameter | Typical Value |
| Dielectric Breakdown Field | 1.64 ± 0.06 V/nm |
| Parameter | Typical Value |
| UV Band-Edge Emission | ~215 nm |
| Raman E₂g FWHM | 7.88 cm⁻¹ |
| Crystal Luminescence Quality | State-of-the-Art Level |
| Parameter | Typical Value |
| Graphene Room-Temperature Mobility | ~80,000 cm²/V·s |
| Carrier Density | 1 × 10¹² cm⁻² |
| Measurement Temperature | 300 K |
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Device-grade hBN is widely used as an encapsulation layer and substrate material for graphene transistors, Hall devices, and high-frequency electronic components. Its atomically smooth surface minimizes charge scattering and enables ultra-high carrier mobility.
The material serves as a critical building block in van der Waals heterostructures involving graphene, transition metal dichalcogenides (TMDs), and other emerging two-dimensional materials.
High-quality hBN supports phonon-polariton propagation and is increasingly utilized in nanophotonic devices, optical metasurfaces, and quantum photonics research.
With characteristic band-edge emission near 215 nm, hBN single crystals are promising materials for deep-UV emitters, detectors, and next-generation photonic systems.
Researchers use hBN as an ultra-clean dielectric platform for investigating novel quantum phenomena, including moiré superlattices, correlated electron systems, and quantum transport.
Compared with conventional polycrystalline boron nitride materials, device-grade hBN single crystals provide:
These characteristics make hBN one of the most important enabling materials for modern two-dimensional electronics and photonic technologies.
Device-Grade hBN Single Crystals are supplied in protective chip carriers to ensure safe transportation and convenient laboratory handling. Each package typically contains 5–10 crystals with representative lateral dimensions exceeding 1 mm.
Custom crystal selection and research-grade material sourcing are available upon request.
Device-grade hBN is a high-purity, low-defect single crystal of hexagonal boron nitride specifically optimized for electronic, photonic, and quantum device fabrication.
hBN provides an atomically smooth and electrically insulating surface that significantly improves graphene carrier mobility and device performance compared with conventional substrates.
Yes. High-quality hBN exhibits band-edge emission near 215 nm, making it attractive for deep-UV photonics, detectors, and optoelectronic devices.
Standard device-grade crystals typically offer lateral dimensions greater than 1 mm. Larger crystals and custom selections may be available depending on production batches.
Yes. Device-grade hBN single crystals are widely used in academic research, advanced materials studies, graphene electronics, nanophotonics, and prototype device fabrication.