Core Advantages

Comprehensive Value to Customer Research

"Our research team possesses years of accumulated expertise in the CVD growth of two-dimensional materials—ranging from graphene to transition metal chalcogenides—processes that demand exceptionally high standards regarding CVD system vacuum levels, gas control, and temperature stability. The PT-OTF-1200-80*300-F3 high-vacuum CVD system achieves an ultimate vacuum level of 6.67×10⁻³ Pa—a performance metric far superior to that of comparable laboratory-grade equipment—thereby providing a pristine reaction environment essential for the growth of high-quality 2D materials. Its three-channel mass flow controllers feature high precision and rapid response times, enabling extremely accurate regulation of the CH₄/H₂/Ar gas ratios during graphene growth. The 32-segment programmable temperature control profile allows us the flexibility to design complex heating, holding, and cooling sequences with a temperature control accuracy of ±1°C, ensuring excellent experimental reproducibility. The system has been operating stably for over a year and remains one of the most heavily utilized pieces of equipment in our laboratory. Whether for growing monolayer graphene for spintronics research or for preparing TMDs for optoelectronic detection applications, this system provides reliable technical support. Furthermore, the thoughtful design featuring a mobile cabinet base equipped with casters makes the unit incredibly easy to relocate whenever our laboratory layout requires reconfiguration."XAbMuffle Furnace,Tube Furnace,Vacuum Furnace,Atmosphere Furnac
XAbMuffle Furnace,Tube Furnace,Vacuum Furnace,Atmosphere Furnac
—— Head, 2D Materials Research Team | Department of Materials Science and Engineering, National University of SingaporeXAbMuffle Furnace,Tube Furnace,Vacuum Furnace,Atmosphere Furnac

"Our team focuses on the synthesis of high-quality two-dimensional (2D) materials via the CVD method, as well as their applications in electronic and quantum devices. Previously, the laboratory-grade CVD system we utilized achieved a vacuum level of only around 10⁻¹ Pa; consequently, residual oxygen significantly compromised the growth quality of MoS₂. This new high-vacuum CVD system has elevated the base vacuum level to the 10⁻³ Pa range, resulting in synthesized samples that exhibit markedly superior quality—characterized by narrower peak widths—in both Raman and photoluminescence spectra. The gas delivery lines are specifically engineered to accommodate a diverse array of CVD processes, enabling the flexible mixing of gases such as N₂, H₂, and CH₄ with exceptional precision in flow control. The system features an intuitive, touch-screen-based user interface, allowing our Ph.D. students to master independent operation within just half a day. Leveraging this system, we have successfully synthesized high-quality monolayer MoS₂ and WS₂, and have subsequently fabricated field-effect transistor devices based on these materials. Moving forward, we intend to utilize this system to explore additional novel 2D material systems. This system has truly become an indispensable core asset within our laboratory."XAbMuffle Furnace,Tube Furnace,Vacuum Furnace,Atmosphere Furnac
XAbMuffle Furnace,Tube Furnace,Vacuum Furnace,Atmosphere Furnac
—— Researcher, Low-Dimensional Materials and Devices Research Program, National University of SingaporeXAbMuffle Furnace,Tube Furnace,Vacuum Furnace,Atmosphere Furnac