The OLED evaporation source is a high-temperature heating heater for vacuum devices with a maximum operating temperature of 1500°C. It can evaporate materials with high evaporation temperatures, making it suitable for a wide range of applications as a vacuum high-temperature heater and evaporation cell, from low-temperature organic deposition (up to 800°C) cells to high-temperature resistance heating deposition (up to 1500°C) MBE cells. Shutter actuators and water-cooled jackets are also available. High-temperature heaters above 800°C are designed with internal shielding, considering insulation and thermal shielding. 【Main Specifications】 ■ Maximum control temperature: 800°C or 1500°C ■ Operating environment: in vacuum or inert gas (*O2 up to 800°C) ■ Heater: tungsten filament ■ Crucible volume: 1cc (maximum fill volume 1.5cc) ■ Crucible material: alumina ■ Case material: SUS304 or molybdenum ■ Thermocouple: K or C 【Options】 ⚫ Crucible material: PBN, graphite, quartz ⚫ Heater: NiCr wire, Kanthal wire (*for O2) ⚫ Crucible volume: 10cc (maximum fill volume 15cc) ⚫ Shutter: pneumatic or motor-driven ⚫ Water-cooled jacket ⚫ Controller (for heater and shutter control)

ThermoCera Japan has updated the latest catalog for its ultra-high temperature substrate heating heaters, suitable for thin film experiments such as CVD and PVD, ranging from 1 inch to 4 inches. ◉ Maximum operating temperature: 850°C (SH-IN), 1100°C (SH-BN) We also accommodate requests for customized products such as substrate holders, vertical lift mechanisms, substrate rotation mechanisms, and RF bias. Additionally, we offer heater controllers in both traditional standalone models and 19-inch rack mount options.

Two thin film experimental devices are connected by a load lock mechanism. Different film deposition devices (sputtering - evaporation, etc.) are seamlessly connected via the load lock. With Moorfield's unique load lock system, connections to the process chamber on the left, right, and rear are also possible (see photo below). 1. MiniLab-E080A (Evaporation Device) - EB evaporation: 7cc crucible x 6 - Resistance heating evaporation x 2 - Organic evaporation limit x 2 2. MiniLab-S060A (Sputtering Device) - Φ2" Magnetron cathode x 4 for simultaneous sputtering - Compatible with both DC and RF power supplies 3. Load Lock Chamber - Plasma etching stage In the load lock chamber, plasma cleaning of the substrate surface is performed using the "RF/DC substrate bias stage," and the company's unique "soft etching" technology allows for a <30W low-power, damage-free plasma etching stage. This enables delicate etching processes that are prone to damage, such as 2D (removal of resists like PMMA), graphene delamination, and etching of Teflon substrates. (*This can also be installed in the main chamber stage.)

This is a flexible thin film experimental device for R&D that eliminates waste by integrating the necessary minimum modules and controllers into a 19" compact rack with a Plug & Play feel, achieving compact size, space-saving design, simple operation, and high cost performance. It supports magnetron sputtering (up to 3 sources) or resistance heating evaporation (metal sources up to 2, organic materials x4), and can also be equipped with a substrate heating stage, allowing for the production of annealing devices and RF etching. There is also a glove box storage type available (specifications to be discussed). We offer a wide range of optional components that can be flexibly customized. ◉ Φ2 inch magnetron cathode (up to 3 sources) ◉ Resistance heating evaporation source filament, crucible, boat type (up to 4 poles with automatic switching via controller) ◉ Organic evaporation cell: 1cc or 5cc ◉ Glove box compatible (optional, specifications to be discussed) ◉ Other options: simultaneous film deposition, HiPIMS, automatic film deposition controller, custom substrate holders, load lock, substrate rotation/heating/cooling, and many more options available. *Please first contact us with your required specifications, and we will configure the system to meet your needs.

Multi-purpose, high-precision process control [Hot-wall thermal CVD device] ◉ Graphene, carbon nanotubes ◉ ZnO nanowires ◉ Insulating films such as SiO2 Additionally, it can be utilized for a wide range of applications as a hot-wall thermal CVD device.